Beamed elastomeric laminate structure, fit, and texture

ABSTRACT

The present disclosure relates to stranded elastomeric laminates (including bi-laminates and tri-laminates) comprising beamed elastics and may have inventive Dtex-to-Nonwoven-Basis-Weight-Ratios, Dtex-to-Spacing-Ratios, and/or Void-Area-to-Strand-Area-Ratios. The stranded laminates of the present disclosure may be used for disposable absorbent article components (including pant belts) and may comprise inventive bonding arrangements that yield inventive textures and texture arrangements. When the inventive stranded elastomeric laminates are used for pant belts, the pants may have inventive Application-Forces, Sustained-Fit-Load-Forces, and Sustained-Fit-Unload-Forces. Further, when absorbent articles are packaged under compression at inventive In-Bag-Stack-Heights, the stranded elastomeric laminates of the present disclosure maintain their inventive properties and characteristics, including their inventive textures.

CROSS-REFERENCE TO RELATED APPLICATIONS

This application is a continuation of U.S. application Ser. No.16/117,579, filed on Aug. 30, 2018, which claims the benefit, under 35USC 119(e), to U.S. Provisional Patent Application No. 62/553,538, filedon Sep. 1, 2017 (P&G 14921P); U.S. Provisional Patent Application No.62/553,149, filed on Sep. 1, 2017 (P&G 14917P); U.S. Provisional PatentApplication No. 62/553,171, filed on Sep. 1, 2017 (P&G 14918P); U.S.Provisional Patent Application No. 62/581,278, filed on Nov. 30, 2017(P&G 15007P); U.S. Provisional Patent Application No. 62/685,429, filedon Jun. 15, 2018 (P&G 15275P); U.S. Provisional Patent Application No.62/687,031, filed on Jun. 19, 2018 (P&G 15271P); U.S. Provisional PatentApplication No. 62/686,896, filed on Jun. 19, 2018 (P&G 15273P); each ofwhich are herein incorporated by reference in their entirety.

U.S. application Ser. No. 16/117,579 is also a continuation-in-part of,and claims priority under 35 U.S.C. § 120, to U.S. Nonprovisional patentapplication Ser. No. 15/832,929, filed on Dec. 6, 2017 (P&G 14917M);U.S. Nonprovisional patent application Ser. No. 15/833,057, filed onDec. 6, 2017 (P&G 14918M); U.S. Nonprovisional patent application Ser.No. 15/838,405, filed on Dec. 12, 2017 (P&G 15007M); U.S. Nonprovisionalpatent application Ser. No. 15/839,896, filed on Dec. 13, 2017 (P&G15039); U.S. Nonprovisional patent application Ser. No. 15/846,341,filed on Dec. 19, 2017 (P&G 15042); U.S. Nonprovisional patentapplication Ser. No. 15/846,360, filed on Dec. 19, 2017 (P&G 15043);U.S. Nonprovisional patent application Ser. No. 15/846,371, filed onDec. 19, 2017 (P&G 15044); U.S. Nonprovisional patent application Ser.No. 15/846,391, filed on Dec. 19, 2017 (P&G 15045); U.S. Nonprovisionalpatent application Ser. No. 15/846,409, filed on Dec. 19, 2017 (P&G15046); U.S. Nonprovisional patent application Ser. No. 15/846,433,filed on Dec. 19, 2017 (P&G 15049); U.S. Nonprovisional patentapplication Ser. No. 15/846,349, filed on Dec. 19, 2017 (P&G 15052);U.S. Nonprovisional patent application Ser. No. 15/846,382, filed onDec. 19, 2017 (P&G 15040); U.S. Nonprovisional patent application Ser.No. 16/115,617, filed on Aug. 29, 2018 (P&G 15275M); and U.S.Nonprovisional patent application Ser. No. 15/846,745, filed on Dec. 19,2017 (P&G 14921M); each of which are herein incorporated by reference intheir entirety.

FIELD OF THE INVENTION

The present disclosure relates to absorbent articles, more particularly,to disposable absorbent articles comprising improved elastomericlaminates configured to perform in various components of the disposableabsorbent articles.

BACKGROUND OF THE INVENTION

Traditional stranded elastomeric laminates as disclosed in the art areoften used to make disposable pant belts. Because traditional strandedelastomeric laminates use larger elastic strands (e.g., Average-Dtexgreater than 400) with larger spaces between the elastic strands (e.g.,Average-Strand-Spacing greater than 4 mm) at higher pre-strains (e.g.,Average-Pre-Strain greater than 200%) they have many undesirableperformance parameters. Specifically, traditional laminates have highstrand pressure (e.g., Pressure-Under-Strand greater than 1 psi) andmodulus (e.g., Section-Modulus greater than 10 gf/mm) that result inpoor sustained fit and red marking. Further, the force required to openmany belts made with traditional stranded elastomeric laminates can bemuch too high (e.g., Application-Force greater than 2,500 gf), making itdifficult for caretakers and wearers to don the disposable pants.

The elastomeric laminates of the present disclosure overcome many of thedeficiencies of traditional stranded elastomeric laminates by usingclosely spaced (e.g., Average-Strand-Spacing less than 4 mm), fineelastomeric strands (Average-Dtex less than 400), resulting in lowstrand pressure (Pressure-Under-Strand less than 1 psi) and modulus(e.g., Section-Modulus less than 10 gf/mm). These new strandedelastomeric laminates disclosed herein provide ease ofapplication/donning, improved sustained fit and without marking thewearer's skin because of the way they distribute force. The elastomericlaminates of the present disclosure also lend themselves to havingmultiple texture zones that help to make the disposable pant moretextile garment-like and communicate comfortable fit or signalperformance zones and a contoured fit. Overall, the elastomericlaminates of the present disclosure look and perform unlike anypreviously disclosed or marketed elastomeric laminate.

It has also been found that the inventive stranded elastomeric laminatesof the present disclosure may be subjected to the process of beingincorporated into absorbent article and of being packaged at highcompressions over a substantial shelf life and still retain thebeneficial and desirable properties described herein.

Much of the focus of the present disclosure is directed towarddisposable pants and pant belts, but please note that the new laminatesof the present disclosure have many applications to disposable absorbentarticles (e.g., diapers, pads, liners, etc.) and article components(e.g., topsheets, backsheets, cuffs, side panels, belts etc.).

Greater details of the design ambitions of the new stranded elastomericlaminates follow in the sections below.

SUMMARY OF THE INVENTION

In a disclosed example of the present disclosure, an elastomericlaminate may comprise a plurality of elastic strands between of firstand second nonwovens, where the plurality of elastic strands has anAverage-Strand-Spacing from about 0.25 mm to about 4 mm, an Average-Dtexfrom about 10 to about 400, and an Average-Pre-Strain from about 50% toabout 300%. Alternatively, the plurality of elastic strands may have anAverage-Strand-Spacing from about 0.25 mm to about 2.5 mm, anAverage-Dtex from about 40 to about 250, and an Average-Pre-Strain fromabout 75% to about 250%. A plurality of densified bonds join the firstand second nonwovens together, are discrete and spaced from each other,and overlap and at least partially surround portions of the plurality ofelastic strands. The laminate has a Peel-Strength between the first andsecond nonwovens from about 1 N/cm to about 15 N/cm or may have about1.5N/cm to 10N/cm. A Dtex-to-Nonwoven-Basis-Weight-Ratio of a firstelastic strand and of at least one of the first and second nonwovens isfrom about 1.5 to about 15 or may be about 3 to about 10. The firstnonwoven layer has a basis weight from about 6 grams per square meter toabout 35 grams per square meter, and the second nonwoven layer has abasis weight from about 6 grams per square meter to about 35 grams persquare meter. Alternatively, the first nonwoven layer may have a basisweight from about 8 grams per square meter to about 25 grams per squaremeter, and the second nonwoven layer may have a basis weight from about8 grams per square meter to about 25 grams per square meter.

In a disclosed example of the present disclosure, an elastomericlaminate comprises a plurality of elastic strands between of first andsecond nonwovens, where the plurality of elastic strands has anAverage-Strand-Spacing from about 0.25 mm to about 4 mm and anAverage-Dtex from about 10 to about 400. Alternatively, the plurality ofelastic strands may have an Average-Strand-Spacing from about 0.25 mm toabout 2.5 mm, an Average-Dtex from about 40 to about 250, and anAverage-Pre-Strain from about 75% to about 250%. The first and secondnonwovens may be joined together, and a third nonwoven is joined to thesecond nonwoven, such that the second nonwoven is an intermediatenonwoven. A Dtex-to-Spacing-Ratio of the plurality of elastic strands isfrom about 65:1 to about 200:1 or may be from about 75:1 to about 150:1.The first and second nonwovens may be joined together via an adhesive,where the adhesive overlaps and at least partially surrounds a portionof the plurality of elastic strands. The second and third nonwovens maybe joined together via a plurality of bonds, where the plurality ofbonds are discrete and laterally spaced from each other. Elastic strandsmay not be present between the second and third nonwovens. The exteriorsurface of the third nonwoven and an exterior surface of the firstnonwoven may have different Percent-Contact-Areas. ThePercent-Contact-Area of the exterior surface of the third nonwoven maybe less than about 35% and the Percent-Contact-Area of the exteriorsurface of the first nonwoven may be greater than about 40%.

In a disclosed example of the present disclosure, a disposable absorbentpant article comprises a chassis, a front waist region, and a back waistregion. The chassis comprises a topsheet, a backsheet and an absorbentcore disposed between the topsheet and the backsheet. A first pluralityof elastic strands is disposed in the front waist region and a secondplurality of elastic strands is disposed in the back waist region. Thefront and back waist regions are joined together at laterally opposedside seams to form a waist and leg openings. The front waist region is aregion between a) a proximal most front axis extending parallel to thelateral axis and passing through proximal most points of the laterallyopposed front side seams; and b) a distal most front axis extendingparallel to the lateral axis and passing through distal most points ofthe laterally opposed front side seams. The back waist region is aregion between a) a proximal most back axis extending parallel to thelateral axis and passing through proximal most points of the laterallyopposed back side seams; and b) a distal most back axis extendingparallel to the lateral axis and passing through distal most points ofthe laterally opposed back side seams. The front waist region comprisesa front component region disposed between and including a front distalmost elastic strand of the front waist region and a proximal mostelastic strand of the front waist region, where the front componentregion is defined by a front distal component region line extendingparallel to the lateral axis and passing through a distal most point ofthe front distal most elastic strand and a front proximal componentregion line extending parallel to the lateral axis and passing through aproximal most point of the front proximal most elastic strand. The frontcomponent region is then divided into 4 equal component sections,defined by first, second, and third component section lines, eachdisposed parallel to the lateral axis and disposed at 25%, 50% and 75%of the distance between the front distal component region line and frontproximal component region line. The front component region comprises afirst component section, Front Section 1, comprising the front distalmost elastic strand, a fourth component section, Front Section 4,comprising the front proximal most elastic strand, a second componentsection, Front Section 2, adjacent to Front Section 1, and a thirdcomponent section, Front Section 3, disposed between Front Sections 2and 4. The absorbent article is divided into three article sections,Section L, Section M, and Section R, wherein the article sections aredefined by a left article section line extending parallel to thelongitudinal axis and passing through a left laterally distal most pointof a left side edge of the chassis and by a right article section lineextending parallel to the longitudinal axis and passing through a rightlaterally distal most point of a right side edge, which is laterallyopposed from the left side edge of the chassis, where any portion of thearticle to one lateral side or the other of the Section M definesSection L and the laterally opposed Section R. Each of the first andsecond pluralities of elastics have an Average-Strand-Spacing from about0.25 mm to about 4 mm and an Average-Dtex is from about 10 to about 400.Alternatively, the plurality of elastic strands may have anAverage-Strand-Spacing from about 0.25 mm to about 2.5 mm, anAverage-Dtex from about 40 to about 250, and an Average-Pre-Strain fromabout 75% to about 250%. At least a portion of each of the first andsecond pluralities of elastics has a Pressure-Under-Strand of from about0.1 to about 1.2 psi or may be less than about 1 psi or less than about0.75 psi or less than about 0.5 psi. The pant article has anApplication-Force of from about 900 gf to about 1600 gf, or may havefrom about 1,000 gf to about 1,400 gf and a Sustained-Fit-Load-Forcegreater than about 30% of the Application-Force, and aSustained-Fit-Unload-Force greater than about 25% of theApplication-Force.

In a disclosed example of the present disclosure, a packaged productcomprises a package and a plurality of disposable absorbent articles.The package has height, width and depth dimensions, an interior spaceand an exterior surface, and the package comprises a film. The pluralityof disposable absorbent articles are folded, and may be bi-folded, andarranged to form a stack of disposable absorbent articles. The stack ofdisposable absorbent articles is compressed along a compression axis anddisposed within the interior space of the package such that thecompression axis of the stack of disposable absorbent articles isoriented substantially along the width dimension of the package. Each ofthe folded disposable absorbent articles comprise a topsheet, abacksheet, and an absorbent core located between the topsheet and thebacksheet. Each of the disposable absorbent articles comprise anelastomeric laminate comprising a plurality of elastic strands betweenfirst and second nonwovens, where the plurality of elastic strands hasan Average-Strand-Spacing from about 0.25 mm to about 4 mm, anAverage-Dtex from about 10 to about 400, an Average-Pre-Strain fromabout 50% to about 300%. Alternatively, the plurality of elastic strandsmay have an Average-Strand-Spacing from about 0.25 mm to about 2.5 mm,an Average-Dtex from about 40 to about 250, and an Average-Pre-Strainfrom about 75% to about 250%. The packaged product exhibits anIn-Bag-Stack-Height from 70 mm to 110 mm wherein the In-Bag Stack-Heightis the width of the package divided by the number of the disposablearticles per stack and then multiplied by ten.

In each of these disclosed examples in the Summary of the Invention, oneor more of the following may be true:

a) greater than 70% of the elastic strands in one of the L and R articlesections extends at least 50% of a lateral width (laid out flat, i.e.,extended) of the respective L and R sections;

b) less than 20% of the elastic filaments of the first plurality ofstrands are broken between adjacent bonds of the first plurality ofbonds that are transversely spaced less than 20 mm from each other;

c) the elastomeric laminate has a Section-Modulus of from about 3 gf/mmto about 10 gf/mm, or from about 4 gf/mm to about 9 gf/mm;

d) the elastomeric laminate forms at least one of an article componentselected from the group consisting of a side panel, a belt panel, awaistband, a leg cuff, and an ear panel;

e) the elastomeric laminate may form an article component that isdivided into four equal sections according to the Section-ModulusMethod, and wherein at least one of the sections comprises at least aportion of the first plurality of elastics and has a Section-Modulus offrom about 3 gf/mm to about 10 gf/mm or from about 4 gf/mm to about 9gf/mm;

f) the Basis-Weight of the first nonwoven is from about 6 gsm to about35 gsm;

g) the Basis-Weight of the second nonwoven is from about 6 gsm to about35 gsm;

h) portions of the elastomeric laminate comprises a TS7-Value of lessthan about 12 and a TS750-Value of less than 60;

i) the elastomeric laminate has an Air-Permeability of at least one of:a) greater than about 40 cubic meters/square meter/minuteAir-Permeability at 0 gf/mm (no extension); b) greater than about 60cubic meters/square meter/minute Air-Permeability at 3 gf/mm (slightextension); and c) greater than about 80 cubic meters/squaremeter/minute Air-Permeability at 7 gf/mm (moderate extension); j) theelastomeric laminate has a Cantilever-Bending of less than about 40 mm;

k) the elastomeric laminate has a Rugosity-Frequency of from about 0.2mm⁻¹ to about 1 mm⁻¹, and a Rugosity-Wavelength of from about 0.5 mm toabout 5 mm;

l) the elastomeric laminate has a Percent-Contact-Area of at least oneof: 1) greater than about 10% at 100 um, 2) greater than about 20% at200 um, and 3) greater than about 30% at 300 um;

m) the elastomeric laminate has a 2%-98%-Height-Value of <1.6 mm;

n) the Force-Relaxation-Over-Time of the elastomeric laminate is fromabout 5% to about 30%; and

o) a Peel-Strength between the first and second nonwoven layers of atleast about 1 N/cm to about 5N/cm or from about 2 N/cm up to about 10N/cm or up to and including substrate failure of one or both of thenonwoven substrates.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1A is a perspective front view of a pant fitted onto a mannequinwearer comprising multiple texture zones.

FIG. 1B is a perspective front view of a pant fitted onto a mannequinwearer comprising multiple texture zones.

FIG. 1C is a perspective front view of a pant fitted onto a mannequinwearer comprising multiple texture zones.

FIG. 1D is a perspective front view of a pant fitted onto a mannequinwearer comprising multiple texture zones.

FIG. 1E is a perspective front view of a pant fitted onto a mannequinwearer comprising multiple texture zones.

FIG. 1F is a perspective front view of a pant fitted onto a mannequinwearer comprising multiple texture zones.

FIG. 1G is a perspective front view of a pant fitted onto a mannequinwearer comprising multiple texture zones.

FIG. 2A is a plan view of a garment-facing surface of the pant of FIG.1A comprising texture, prior to joining side edges of the belt to formthe waist and leg openings.

FIG. 2B is a plan view of a garment-facing surface of the pant of FIG.1B comprising texture, prior to joining side edges of the belt to formthe waist and leg openings.

FIG. 2C is a plan view of a garment-facing surface of the pant of FIG.1C comprising texture, prior to joining side edges of the belt to formthe waist and leg openings.

FIG. 2D is a plan view of a garment-facing surface of the pant of FIG.1D comprising texture, prior to joining side edges of the belt to formthe waist and leg openings.

FIG. 2E is a plan view of a garment-facing surface of the pant of FIG.1E comprising texture, prior to joining side edges of the belt to formthe waist and leg openings.

FIG. 2F is a plan view of a garment-facing surface of the pant of FIG.1F comprising texture, prior to joining side edges of the belt to formthe waist and leg openings.

FIG. 2G is a plan view of a garment-facing surface of the pant of FIG.1G comprising texture, prior to joining side edges of the belt to formthe waist and leg openings.

FIG. 2H is a plan view of a garment-facing surface of a pant comprisingmultiple texture zones, prior to joining side edges of the belt to formthe waist and leg openings.

FIG. 2H′ is an expanded image of a portion of the bond arrangement ofFIG. 2H.

FIG. 2I is a plan view of a garment-facing surface of a pant comprisingmultiple texture zones, prior to joining side edges of the belt to formthe waist and leg openings.

FIG. 2I′ is an expanded image of a portion of the bond arrangement ofFIG. 2I.

FIG. 3A is a plan view of a garment-facing surface of an optionalembodiment of the pant of FIG. 1A comprising color fields and/or colorpatterns that compliment the different textures of FIG. 1A, prior tojoining side edges of the belt to form the waist and leg openings.

FIG. 3B is a plan view of a garment-facing surface of an optionalembodiment of the pant of FIG. 1B comprising color fields and/or colorpatterns that compliment the different textures of FIG. 1B, prior tojoining side edges of the belt to form the waist and leg openings.

FIG. 3C is a plan view of a garment-facing surface of an optionalembodiment of the pant of FIG. 1C comprising color fields and/or colorpatterns that compliment the different textures of FIG. 1C, prior tojoining side edges of the belt to form the waist and leg openings.

FIG. 3D is a plan view of a garment-facing surface of an optionalembodiment of the pant of FIG. 1D comprising color fields and/or colorpatterns that compliment the different textures of FIG. 1D, prior tojoining side edges of the belt to form the waist and leg openings.

FIG. 3E is a plan view of a garment-facing surface of an optionalembodiment of the pant of FIG. 1E comprising color fields and/or colorpatterns that compliment the different textures of FIG. 1E, prior tojoining side edges of the belt to form the waist and leg openings.

FIG. 3F is a plan view of a garment-facing surface of an optionalembodiment of the pant of FIG. 1F comprising color fields and/or colorpatterns that compliment the different textures of FIG. 1F, prior tojoining side edges of the belt to form the waist and leg openings.

FIG. 4 is a top view of a garment-facing surface of a portion of anelastomeric laminate of the present disclosure illustrating colorcontrast between the elastic strands and a substrate layer of thelaminate and assymetric elastic strand spacing.

FIG. 5A illustrates a stress-strain curve with Maximum Extension,Application-Force, Sustained-Fit-Load-Force, andSustained-Fit-Unload-Force.

FIG. 5B illustrates Sustained-Fit-Load-Force andSustained-Fit-Unload-Force across inventive and comparative products.

FIG. 5C illustrates Sustained-Fit-Load-Force andSustained-Fit-Unload-Force of an inventive product and a comparativemarket product.

FIG. 5D is a perspective front view of the initial fit of thecomparative market product of FIG. 5C (Easy Ups (Size 4)).

FIG. 5D′ is a perspective front view of the final fit of the comparativemarket product of FIG. 5C (Easy Ups (Size 4)).

FIG. 5E is a perspective front view of the initial fit of the inventiveproduct of FIG. 5C (Adhesively Bonded Beamed Elastic (Size 4)).

FIG. 5E′ is a perspective front view of the final fit of the inventiveproduct of FIG. 5C (Adhesively Bonded Beamed Elastic (Size 4)).

FIG. 5F is a perspective back view of the initial fit of the comparativemarket product of FIG. 5C (Easy Ups (Size 4)).

FIG. 5F′ is a perspective back view of the final fit of the comparativemarket product of FIG. 5C (Easy Ups (Size 4)).

FIG. 5G is a perspective back view of the initial fit of the inventiveproduct of FIG. 5C (Adhesively Bonded Beamed Elastic (Size 4)).

FIG. 5G′ is a perspective back view of the final fit of the inventiveproduct of FIG. 5C (Adhesively Bonded Beamed Elastic (Size 4)).

FIG. 6A is an image of inventive adhesively bonded elastomeric laminateof the present disclosure having an Average-Pre-Strain of 150% showingthe Percent-Contact-Area taken from the Surface Topography Method.

FIG. 6B is an image of inventive adhesively elastomeric laminate of thepresent disclosure having an Average-Pre-Strain of 120% showing thePercent-Contact-Area taken from the Surface Topography Method.

FIG. 6C is an image of inventive ultrasonically bonded elastomericlaminate of the present disclosure showing the Percent-Contact-Areataken from the Surface Topography Method.

FIG. 6D is an image of a current market product of the presentdisclosure showing the Percent-Contact-Area taken from the SurfaceTopography Method.

FIG. 6E is an image of a current market product of the presentdisclosure showing the Percent-Contact-Area taken from the SurfaceTopography Method.

FIG. 7 illustrates the Section-Modulus.

FIG. 8 is a chart showing Force-Relaxation-Over-Time for a laminatecomprising extruded strand elastics and for an inventive elastomericlaminate of the present disclosure.

FIG. 9A is a schematic side view of a converting apparatus adapted tomanufacture an elastomeric laminate including a first plurality ofelastic strands positioned between a first substrate and a secondsubstrate.

FIG. 9B is a view of the converting apparatus of FIG. 9A taken alongline 9B-9B.

FIG. 10A is a detailed view of an elastic strand in a stretched statebonded between the first and second substrates.

FIG. 10B shows a length of an elastic strand in a relaxed state with afirst cross-sectional area.

FIG. 10C shows a length of the elastic strand of FIG. 10B in a stretchedstate with a second cross-sectional area that is less than the firstcross-sectional area of 10B.

FIG. 10D is a detailed view of an elastic strand in a relaxed statebonded between the first and second substrates.

FIG. 10E is a sectional view of the elastic strand, bond, firstsubstrate, and second substrate of FIG. 10A taken along line 10E-10E.

FIG. 10F is a sectional view of the elastic strand in a bonded region ofFIG. 10D taken along line 10F-10F, wherein the elastic strand is in arelaxed state.

FIG. 10G is a sectional view of the elastic strand in an unbonded regionof FIG. 10D taken along line 10G-10G, wherein the elastic strand is in arelaxed state.

FIG. 10H is a sectional view of an elastic strand, bond, firstsubstrate, and second substrate of FIG. 10A taken along line 10E-10E,wherein a plurality of filaments of the elastic strand are bonded in afirst configuration.

FIG. 10I is a sectional view of an elastic strand, bond, firstsubstrate, and second substrate of FIG. 10A taken along line 10E-10E,wherein a plurality of filaments of the elastic strand are bonded in asecond configuration.

FIG. 10J is a sectional view of an elastic strand, bond, firstsubstrate, and second substrate of FIG. 10A taken along line 10E-10E,wherein a plurality of filaments of the elastic strand are bonded in athird configuration.

FIG. 10K is a scanning electron microscope (“SEM”) photograph of across-sectional view of an elastic strand including five filaments in abonded region and surrounded by hardened first and second substratematerials.

FIG. 10L is a scanning electron microscope (“SEM”) photograph of across-sectional view of an elastic strand including five filaments in abonded region and surrounded by hardened first and second substratematerials.

FIG. 10M is a scanning electron microscope (“SEM”) photograph of across-sectional view of an elastic strand including fifteen filaments ina bonded region and surrounded by hardened first and second substratematerials.

FIG. 10N is a detailed view of multiple elastic strands in a stretchedstate bonded between the first and second substrates, illustratingmultiple bonds that may be used to form various textures.

FIG. 10O is a sectional view of the elastic strand, bond, firstsubstrate, and second substrate of FIG. 10N taken along line 10O-10O,such that the plurality of filaments are only partially surrounded by adensified bond 322.

FIG. 10P is a sectional view of an elastic strand, bond, firstsubstrate, and second substrate of FIG. 10A taken along line 10E-10E,wherein a plurality of filaments of the elastic strand are bonded in analternative embodiment of the third configuration of FIG. 10J.

FIG. 10Q is a detailed view of multiple elastic strands in a stretchedstate bonded between the first and second substrates, illustrating astrand free-end 327.

FIG. 10R is a detailed view of multiple elastic filaments in a stretchedstate bonded between the first and second substrates, illustratingfilament free-ends 328.

FIG. 11A is a plan view of a garment-facing surface or an exteriorsurface of an elastomeric bi-laminate.

FIG. 11B is a plan view of a wearer-facing surface or an interiorsurface of the elastomeric bi-laminate of FIG. 11A.

FIG. 11C is a cross-sectional view of the bi-laminate of FIG. 11A takenalong line 11C-11C and is a cross-sectional view of the bi-laminate ofFIG. 11B taken along line 11C′-11C′.

FIG. 11D is a sectional view of the bi-laminate of FIG. 11A taken alongline 11D-11D and is a sectional view of the bi-laminate of FIG. 11Btaken along line 11D′-11D′.

FIG. 11E is a cross-sectional view of the bi-laminate of FIG. 11A takenalong line 11E-11E and is a cross-sectional view of the bi-laminate ofFIG. 11B taken along line 11E′-11E′.

FIG. 12A is a plan view of a garment-facing surface of an elastomerictri-laminate.

FIG. 12B is a plan view of a wearer-facing surface of the elastomerictri-laminate of FIG. 12A.

FIG. 12C is a cross-sectional view of the tri-laminate of FIG. 12A takenalong line 12C-12C and is a cross-sectional view of the tri-laminate ofFIG. 12B taken along line 12C′-12C′.

FIG. 12D is a sectional view of the tri-laminate of FIG. 12A taken alongline 12D-12D and is a sectional view of the tri-laminate of FIG. 12Btaken along line 12D′-12D′.

FIG. 12E is a cross-sectional view of the tri-laminate of FIG. 12A takenalong line 12E-12E.

FIG. 12F is a cross-sectional view of an alternate embodiment of thetri-laminate of FIG. 12A taken along line 12E-12E.

FIG. 13A is a plan view of a garment-facing surface of an elastomerictri-laminate.

FIG. 13B is a plan view of a wearer-facing surface of the elastomerictri-laminate of FIG. 13A.

FIG. 13C is a cross-sectional view of the tri-laminate of FIG. 13A takenalong line 13C-13C and is a cross-sectional view of the tri-laminate ofFIG. 13B taken along line 13′-13C′.

FIG. 13D is a sectional view of the tri-laminate of FIG. 13A taken alongline 13D-13D and is a sectional view of the tri-laminate of FIG. 13Btaken along line 13D′-13D′.

FIG. 13E is a cross-sectional view of the tri-laminate of FIG. 13A takenalong line 13E-13E and is a cross-sectional view of the tri-laminate ofFIG. 13B taken along line 13E′-13E′.

FIG. 13F is a cross-sectional view of an alternate embodiment of thetri-laminate of FIG. 13A taken along line 13E-13E and is across-sectional view of the tri-laminate of FIG. 13B taken along line13E′-13E′.

FIG. 13G is a cross-sectional view of an alternate embodiment of thetri-laminate of FIG. 13A taken along line 13E-13E and is across-sectional view of the tri-laminate of FIG. 13B taken along line13E′-13E′.

FIG. 14 is a graph illustrating the relationship linkingAverage-Strand-Spacing and Average-Dtex to Section-Modulus.

FIG. 15A is a graph illustrating the relationship betweenDtex-to-Spacing-Ratio and Section-Modulus.

FIG. 15B is a graph illustrating the relationship betweenDtex-to-Spacing-Ratio and Section-Modulus.

FIG. 16A is a perspective front view of a pant comprising discrete beltshaving continuous elastics.

FIG. 16B is a perspective back view of the pant of FIG. 16A FIG. 16C isa plan view of the pant of FIG. 16A, prior to joining side edges of thebelt to form the waist and leg openings.

FIG. 16D is a cross-section view of the pant of FIG. 16C taken along thetransverse axis, illustrating the elasticized topsheet (showing elastics316 oriented parallel to the longitudinal axis 42) and the elasticizedbacksheet (showing elastics 316 oriented parallel to the longitudinalaxis 42).

FIG. 16E is a cross-section view of an alternate embodiment of the pantof FIG. 16C taken along the longitudinal axis 42, showing longitudinallyopposing discrete belts, wherein elastics 316 are oriented parallel tothe lateral axis 44 between the core wrap 74 and the topsheet 124 andoriented parallel to the lateral axis 44 between the backsheet film 126and the backsheet nonwoven 127.

FIG. 16F is a cross-section view of an alternate embodiment of the beltpant of FIG. 16C taken along the longitudinal axis 42, showinglongitudinally opposing discrete inner belt layers 432 and a commonouter belt layer 434, and showing elastic strands 316 extendingcontinuously across the core.

FIG. 16G is a cross-section view of an alternate embodiment of the beltpant of FIG. 16C taken along the longitudinal axis 42, showing a commoninner belt layer 432 and common outer belt layer 434.

FIG. 17 is a plan view of a pant prior to joining the side panels toform the waist and leg openings.

FIG. 18 is a plan view of a taped diaper comprising a pair of shapeddiscrete elastomeric ear panels 530 and a pair of non-elastomeric earpanels 540.

FIG. 19A is an interior plan view of a feminine hygiene article 801,specifically a pad, illustrating elasticized wings 802, where theelastics 316 are at approximately 45 degree angles relative to thelongitudinal axis 42 and lateral axis 44.

FIG. 19B is an exterior plan view of an alternative embodiment of thefeminine hygiene article 801 of FIG. 19A illustrating elasticized wings802, wherein the elastics 316 are oriented parallel to the longitudinalaxis 42.

FIG. 19C is a cross-section view of an alternative embodiment of thefeminine hygiene article 801, along line 19C-19C of the feminine hygienearticle 801 of FIG. 19A, illustrating only one layer of strands betweenthe layers making up the wings, as well as strands underlying or forminga portion of the topsheet 124 and secondary topsheet 124′.

FIG. 20 illustrates packaged disposable absorbent articles of thepresent disclosure.

FIG. 21 illustrates Pressure-Under-Strand.

FIG. 22 is a front view of a hook fixture for performing the HoopExtension Test

FIG. 23A is a plan view of the pant, prior to joining side edges of thebelt to form the waist and leg openings, illustrating front and backcomponent regions 50 and 51.

FIG. 23B is a plan view of the pant, prior to joining side edges of thebelt to form the waist and leg openings, illustrating front and backcomponent regions 50 and 51.

FIG. 23C is a plan view of the pant, prior to joining side edges of thebelt to form the waist and leg openings, illustrating front and backcomponent regions 50 and 51.

DETAILED DESCRIPTION

The present disclosure details improved stranded elastomeric laminates(also referred to as “beamed laminates” comprising “beamed elastics”)comprising a greater number of elastic strands having a greater fineness(i.e., lower decitex) and a closer spacing than has been previouslydisclosed or practiced in disposable absorbent articles. These improvedstranded elastomeric laminates can be used as disposable absorbentarticle (e.g., disposable taped diapers, pants, pads, liners, etc.)components (e.g., topsheets, backsheets, belts, ears, side panels,cuffs, etc.) for improved fit and gasketing at the waist, legs, crotch,and sides of the wearer to generally provide the greatest level ofextensibility, ease of application, the most comfortable wearingconditions, improved leakage protection and a better sustained fit.Further, the stranded elastomeric laminates of the present disclosurelend themselves to having different bonding zones via different bondingarrangements and/or different types of bonds.

Definitions

The following term explanations may be useful in understanding thepresent disclosure:

“Disposable,” in reference to absorbent articles, means that theabsorbent articles, are generally not intended to be laundered orotherwise restored or reused as absorbent articles (i.e., they areintended to be discarded after a single use and, preferably, to berecycled, composted or otherwise discarded in an environmentallycompatible manner). Disposable absorbent articles often compriseadhesive between the layers and/or elements to hold the article together(e.g., ear panels, side panels, and belts are joined to the chassis viaadhesive and the layers of the ear panels, side panels, belts, andchassis are joined together using adhesive). Alternatively, heat and/orpressure bonding are used with the adhesive or in place of the adhesive.In such instances portions of the material layers may become partiallymelted and pressed together such that once cooled they are physicallybonded together. Nonwovens (including, for example, polypropylene,polyethylene, etc.) adhesives (including, for example, styrenic blockcopolymers (e.g., SIS, SBS)), and absorbent gelling material (AGM 26—seeFIGS. 16C and 16D) make up more than 50%, more than 75%, and often morethan 90% of the disposable absorbent article weight. And, a corecomprising the AGM 26 is often held within the chassis in a manner thatwould encapsulate and contain the AGM 26 under normal conditions. Suchdisposable absorbent articles typically have an absorbent capacity ofgreater than about 100 mL of fluid and can have capacities of up toabout 500 mL of fluid or more. Stitching (including the use of thread)and/or woven materials are typically not used to make a disposableabsorbent article. If stitching or woven materials are used, they makeup an extremely small percentage of the disposable absorbent article.Some landing zones of disposable absorbent articles for fasteners cancomprise a woven material, but no other part of a disposable absorbentarticle typically comprises woven materials.

“Absorbent article” refers to devices, which absorb and contain bodyexudates and, more specifically, refers to devices, which are placedagainst or in proximity to the body of the wearer to absorb and containthe various exudates discharged from the body. Exemplary absorbentarticles include diapers, training pants, pull-on pant-type diapers(i.e., a diaper having a pre-formed waist opening and leg openings suchas illustrated in U.S. Pat. No. 6,120,487), refastenable diapers orpant-type diapers, incontinence briefs and undergarments, diaper holdersand liners, feminine hygiene garments such as panty liners, femininepads, absorbent inserts, absorbent pad and panty (disposable andsemi-durable) systems and the like.

“Proximal” and “Distal” refer respectively to the location of an elementrelatively near to or far from the longitudinal or lateral centerline ofa structure (e.g., the proximal edge of a longitudinally extendingelement is located nearer to the longitudinal axis than the distal edgeof the same element is located relative to the same longitudinal axis).

“Wearer-facing” and “garment-facing” refer respectively to the relativelocation of an element or a surface of an element or group of elements.“Wearer-facing” implies the element or surface is nearer to the wearerduring wear than some other element or surface. “Garment-facing” impliesthe element or surface is more remote from the wearer during wear thansome other element or surface (i.e., element or surface is proximate tothe wearer's garments that may be worn over the disposable absorbentarticle).

“Longitudinal” refers to a direction running substantially perpendicularfrom a waist edge to an opposing waist edge of the article and generallyparallel to the maximum linear dimension of the article. Directionswithin 45 degrees of the longitudinal direction are considered to be“longitudinal.”

“Lateral” refers to a direction running from a longitudinally extendingside edge to an opposing longitudinally extending side edge of thearticle and generally at a right angle to the longitudinal direction.Directions within 45 degrees of the lateral direction are considered tobe “lateral.”

“Disposed” refers to an element being located in a particular place orposition.

“Joined” encompasses configurations whereby an element is directlysecured to another element by affixing the element directly to the otherelement, and configurations whereby an element is indirectly secured toanother element by affixing the element to intermediate member(s),which, in turn are affixed to the other element.

“Water-permeable” and “water-impermeable” refer to the penetrability ofmaterials in the context of the intended usage of disposable absorbentarticles. Specifically, the term “water-permeable” refers to a layer ora layered structure having pores, openings, and/or interconnected voidspaces that permit liquid water, urine, or synthetic urine to passthrough its thickness in the absence of a forcing pressure. Conversely,the term “water-impermeable” refers to a layer or a layered structurethrough the thickness of which liquid water, urine, or synthetic urinecannot pass in the absence of a forcing pressure (aside from naturalforces such as gravity). A layer or a layered structure that iswater-impermeable according to this definition may be permeable to watervapor, i.e., may be “vapor-permeable.”

“Elastic,” “elastomer,” or “elastomeric” refers to materials exhibitingelastic properties, which include any material that upon application ofa force to its relaxed, initial length can stretch or elongate to anelongated length more than 10% greater than its initial length and willsubstantially recover back to about its initial length upon release ofthe applied force. Elastomeric materials may include elastomeric films,scrims, nonwovens, ribbons, strands and other sheet-like structures.

“Pre-strain” refers to the strain imposed on an elastic or elastomericmaterial prior to combining it with another element of the elastomericlaminate or the absorbent article. Pre-strain is determined by thefollowing equation Pre-strain=((extended length of the elastic-relaxedlength of the elastic)/relaxed length of the elastic)*100.

“Decitex” also known as Dtex is a measurement used in the textileindustry for measuring yarns or filaments. 1 Decitex=1 gram per 10,000meters. In other words, if 10,000 linear meters of a relaxed yarn orfilament weights 500 grams that yarn or filament would have a decitex of500.

“Substrate” is used herein to describe a material which is primarilytwo-dimensional (i.e. in an XY plane) and whose thickness (in a Zdirection) is relatively small (i.e. 1/10 or less) in comparison to itslength (in an X direction) and width (in a Y direction). Non-limitingexamples of substrates include a web, layer or layers of fibrousmaterials, nonwovens, films and foils such as polymeric films ormetallic foils. These materials may be used alone or may comprise two ormore layers laminated together. As such, a web is a substrate.

“Nonwoven” refers herein to a material made from continuous (long)filaments (fibers) and/or discontinuous (short) filaments (fibers) byprocesses such as spunbonding, meltblowing, carding, and the like.Nonwovens do not have a woven or knitted filament pattern.

“Machine direction” (MD) is used herein to refer to the direction ofmaterial flow through a process. In addition, relative placement andmovement of material can be described as flowing in the machinedirection through a process from upstream in the process to downstreamin the process.

“Cross direction” (CD) is used herein to refer to a direction that isgenerally perpendicular to the machine direction.

“Taped diaper” (also referred to as “open diaper”) refers to disposableabsorbent articles having an initial front waist region and an initialback waist region that are not fastened, pre-fastened, or connected toeach other as packaged, prior to being applied to the wearer. A tapeddiaper may be folded about the lateral centerline with the interior ofone waist region in surface to surface contact with the interior of theopposing waist region without fastening or joining the waist regionstogether. Example taped diapers are disclosed in various suitableconfigurations U.S. Pat. Nos. 5,167,897, 5,360,420, 5,599,335,5,643,588, 5,674,216, 5,702,551, 5,968,025, 6,107,537, 6,118,041,6,153,209, 6,410,129, 6,426,444, 6,586,652, 6,627,787, 6,617,016,6,825,393, and 6,861,571; and U.S. Patent Publication Nos. 2013/0072887A1; 2013/0211356 A1; and 2013/0306226 A1.

“Pant” (also referred to as “training pant”, “pre-closed diaper”,“diaper pant”, “pant diaper”, “panty”, and “pull-on diaper”) refersherein to disposable absorbent articles having a continuous perimeterwaist opening and continuous perimeter leg openings designed for infantor adult wearers. A pant can be configured with a continuous or closedwaist opening and at least one continuous, closed, leg opening prior tothe article being applied to the wearer. A pant can be pre-formed orprefastened by various techniques including, but not limited to, joiningtogether portions of the article using any refastenable and/or permanentclosure member (e.g., seams, heat bonds, pressure welds, adhesives,cohesive bonds, mechanical fasteners, etc.). A pant can be pre-formedanywhere along the circumference of the article in the waist region(e.g., side fastened or seamed, front waist fastened or seamed, rearwaist fastened or seamed). Example diaper pants in variousconfigurations are disclosed in U.S. Pat. Nos. 4,940,464; 5,092,861;5,246,433; 5,569,234; 5,897,545; 5,957,908; 6,120,487; 6,120,489;7,569,039 and U.S. Patent Publication Nos. 2003/0233082 A1; 2005/0107764A1, 2012/0061016 A1, 2012/0061015 A1; 2013/0255861 A1; 2013/0255862 A1;2013/0255863 A1; 2013/0255864 A1; and 2013/0255865 A1, all of which areincorporated by reference herein.

“Side Seam” is the area connecting the front waist region to the backwaist region to form the waist and leg openings. Side seams may beformed as permanent seams via thermal, pressure, heat or ultrasonicbonding. Side seams may also be formed via fastening elements to createa refastenable side seam. In such cases the length of the side seam isdetermined by the length of the fastener or fasteners. Side seams needto have sufficient strength as to not open during use but to be easilyopened for removal.

“Closed-form” means opposing waist regions are joined, as packaged,either permanently or refastenably to form a continuous waist openingand leg openings.

“Open-form” means opposing waist regions are not initially joined toform a continuous waist opening and leg openings but comprise a closuremeans such as a fastening system to join the waist regions to form thewaist and leg openings before or during application to a wearer of thearticle.

“Channel,” as used herein, is a region or zone in an absorbent materiallayer that has a substantially lower basis weight (e.g., less than 50%,less than 70%, less than 90%) than the surrounding material in thematerial layer. The channel may be a region in a material layer that issubstantially absorbent material-free (e.g., 90% absorbentmaterial-free, 95% absorbent material-free, or 99% absorbentmaterial-free, or completely absorbent material-free). A channel mayextend through one or more absorbent material layers. The channelgenerally has a lower bending modulus than the surrounding regions ofthe absorbent material layer, enabling the material layer to bend moreeasily and/or rapidly distribute more bodily exudates within the channelthan in the surrounding areas of the absorbent material layer. Thus, achannel is not merely an indentation in the material layer that does notcreate a reduced basis weight in the material layer in the area of thechannel.

“Cross-Sectional-Bond-Void-Area” is the cross-sectional area of the voidspace created by the pre-strained elastic material when the nonwovensubstrates are compressed or densified to form the bond. The shape ofthe void is defined substantially by the shape and dimensions of theelongated elastic present when the bond is formed (see FIG. 10K).Elastomeric laminates of the present disclosure may comprise densifiedbonds joining substrates and overlapping elastic strands such that aCross-Sectional-Bond-Void-Area of the densified bond is from about 0.001mm² to about 0.03 mm², or from about 0.005 mm² to about 0.015 mm².

“Cross-Sectional-Strand-Area” is the combined cross-sectional area ofthe individual filaments forming the strand. TheCross-Sectional-Strand-Area is determined by measuring thecross-sectional area of each of the filaments forming the strand in thefully relaxed state and adding the individual filament cross-sectionalareas together to determine the cross-sectional area of the strand inits relaxed state. Elastomeric laminates of the present disclosure mayhave strands having a Cross-Sectional-Strand-Area in its relaxeddisposition from about 0.004 mm² to about 0.04 mm² or from about 0.008to about 0.03.

“Void-Area-to-Strand-Area-Ratio” is the ratio required to form thedimensional lock and is determined by dividing theCross-Sectional-Bond-Void-Area of the bond by theCross-Sectional-Strand-Area of the relaxed elastic strand. Elastomericlaminates of the present disclosure may haveVoid-Area-to-Strand-Area-Ratios of less than about 1, or from about 0.25to about 0.9, or from about 0.3 to about 0.7.

“Bond-Length” or “L_(b)” is defined as the longest dimension of thebond. The measurement is taken from a first end of a bond to a secondend of the bond along the pathlength of the bond itself. Forsubstantially linear bonds, the length measurement will be perpendicularto the width measurement of the bond. For circular bonds the length isconsidered to be the diameter of the circular bond. Elastomericlaminates of the present disclosure may have a Bond-Length from about 1mm to about 300 mm, from 3 mm to about 150 mm, or from about 5 mm toabout 100 mm. See FIGS. 2H, 2H′, 10A and 10I.

“Average-Bond-Length” is defined as the average of the Bond-Length of arepresentative plurality of bonds forming the elastomeric laminates ofthe present disclosure. Such elastomeric laminates may have anAverage-Bond-Length from about 3 mm to about 300 mm, from about 5 mm toabout 100 mm, or from about 10 mm to about 50 mm. The bonds 322 may becontinuous and may longitudinally overlap from about 2 to about 200elastic strands, from about 5 to about 150 elastic strands, or fromabout 10 to about 100 elastic strands. FIGS. 2H, 2I, and 10N illustratedensified bonds 322 overlapping a plurality of elastic strands 316.

“Bond-Width” or “W_(b)” is defined as the shortest dimension of thebond. The measurement from a first side of a bond to a second side ofthe bond intersecting the bond length measurement. For substantiallylinear bonds the measurement is perpendicular to the length measurementof the bond.

For circular bonds the width is considered to be the diameter of thecircular bond. Elastomeric laminates of the present disclosure may havea Bond-Width from about 0.25 mm to about 5 mm, from 0.5 mm to about 3mm, or from about 0.5 mm to about 2 mm. See FIGS. 2H, 2I, and 10A.

“Average-Bond-Width” is defined as the average of the Bond-Width of arepresentative plurality of bonds forming the elastomeric laminates ofthe present disclosure. Elastomeric laminates of the present disclosuremay have an Average-Bond-Width from about 0.25 mm to about 5 mm, fromabout 0.5 mm to about 4 mm, or from about 1 mm to about 3 mm.

As used in this disclosure, “Bond-Region-Width” or “W_(br)” is definedas the width from a first laterally opposing bond to a second laterallyopposing bond measured parallel to the lateral axis. Elastomericlaminates of the present disclosure may have a Bond-Region-Width fromabout 0.25 mm to about 5 mm, from about 0.5 mm to about 4 mm, or fromabout 1 mm to about 3 mm. See FIGS. 2H and 2I.

“Average-Bond-Region-Width” is defined as the average of theBond-Region-Width of a representative plurality of bond regions formingthe elastomeric laminates of the present disclosure. Elastomericlaminates of the present disclosure may have anAverage-Bond-Region-Width from about 0.25 mm to about 5 mm, from about0.5 mm to about 4 mm, or from about 1 mm to about 3 mm.

“Bond-Region-Length” or “L_(br)” is defined as the length from a firstlongitudinally opposing bond to a second longitudinally opposing bondmeasured parallel to the longitudinal axis. Elastomeric laminates of thepresent disclosure may have a Bond-Region-Length from about 10 mm toabout 300 mm. See FIGS. 2H and 2I.

“Average-Bond-Region-Length” is defined as the average of theBond-Region-Length of a representative plurality of bond regions formingthe elastomeric laminates of the present disclosure. Elastomericlaminates of the present disclosure may have anAverage-Bond-Region-Length from about 10 mm to about 300 mm or fromabout 25 mm to about 200 mm.

“Longitudinal-Bond-Spacing” or “Sb” is defined as the spacing between afirst bond and a second bond measured parallel to the longitudinalaxis—See FIG. 2H. Elastomeric laminates of the present disclosure mayhave a Longitudinal-Bond-Spacing from about 1 mm to about 20 mm or fromabout 2 mm to about 15 mm.

“Average-Longitudinal-Bond-Spacing” is defined as the average of theLongitudinal-Bond-Spacing of a representative plurality of bonds formingthe elastomeric laminates of the present disclosure. Elastomericlaminates of the present disclosure may have anAverage-Longitudinal-Bond-Spacing from about 1 mm to about 20 mm.

“Lateral-Bond-Spacing” or “S_(la)” is defined as the spacing between afirst bond and a second bond measured parallel to the lateral axis—SeeFIG. 2H. Elastomeric laminates of the present disclosure may have aLateral-Bond-Spacing from about 2 mm to about 30 mm.

“Average-Lateral-Bond-Spacing” is defined as the average of theLateral-Bond-Spacing of a representative plurality of bonds forming theelastomeric laminates of the present disclosure. Elastomeric laminatesof the present disclosure may have an Average-Lateral-Bond-Spacing fromabout 2 mm to about 30 mm.

“Dtex-to-Spacing-Ratio” is determined by dividing the elastic decitex bythe elastic spacing of the plurality of elastics being examined.Elastomeric laminates of the present disclosure may haveDtex-to-Spacing-Ratios of from about 65:1 to about 300:1, or from about80:1 to about 200:1.

“Dtex-to-Nonwoven-Basis-Weight-Ratio” is determined by dividing theelastic decitex by the nonwoven basis weight of the one or more nonwovensubstrates of the elastomeric laminate disposed on one side (garmentfacing side or wearer-facing side) of the elastic strand, i.e. the inneror outer elastomeric laminate substrate layers. Elastomeric laminates ofthe present disclosure may have Dtex-to-Nonwoven-Basis-Weight-Ratios offrom about 1.5 to about 15, from about 3 to about 12, or from about 4 toabout 10.

“Peel-Strength” is the force required to separate the first and secondnonwoven substrate layers forming the elastomeric laminate. Elastomericlaminates of the present disclosure may have a Peel-Strength of at leastabout 1 N/cm to about 5N/cm or from about 2 N/cm up to about 10 N/cm orup to and including substrate failure of one or both of the nonwovensubstrates.

“Melting-Point” is the temperature at which a material or substancechanges state from solid to liquid at atmospheric pressure. At themelting point the solid and liquid phase exist in equilibrium. TheMelting-Point of the first and second substrates may be from about 100to about 170, or from about 110 to about 160, or from about 120 to about150 degrees Celsius. The Melting-Point for the elastic strands ofelastomeric laminates of the present disclosure may be greater thanabout 170 degrees Celsius.

“Application-Force” is the force that a wearer of caretaker mightencounter while donning the absorbent article. The Application-Force isderived from a two cycle Hip Hoop Test.

“Sustained-Fit-Load-Force” is the force that an article applies to thewearer when the wearer's waist extends for example during respiration orduring wearer movement like when a wearer goes from a standing positionto a sitting position or from a prone position to a sitting position.The Sustained-Fit-Load-Force is derived from a two cycle Hip Hoop Test.

“Sustained-Fit-Unload-Force” is the force that an article applies to thewearer when the wearer's waist contracts for example during respirationor during wearer movement like when a wearer goes from a sittingposition to a standing position or from a sitting position to a proneposition. The Sustained-Fit-Unload-Force is derived from a two cycle HipHoop Test.

Other definitions may be presented herein.

Textures of the Present Disclosure

Absorbent articles comprising traditional stranded elastomericlaminates, i.e., those having elastics with a decitex above 400, elasticspacing greater than 4 mm and elastic pre-strain above 200% have atexture comprising large, random rugosities that are present on thewearer-facing surface as well as the garment facing surface. The textureformed by such large, random, rugosities does not provide the appearanceof a textile garment and the size and harshness can adversely impact theskin of the wearer leaving marks and indentations.

Absorbent articles comprising beamed elastics and elastomeric laminatesformed from beamed elastic have much more intentional, well-defined anddeliberate textures enabled by the beamed elastics incorporated into theelastomeric laminate. These intentional, well-defined and deliberatetextures and zones of texture can be used to communicate the intendeduse of the article, the function of the article, as well as the intendedwearer. For example, an intentional texture that is blousy and soft maycommunicate a comfortable fitting design intended for overnight wear,low activity wear times, or may be desirable for younger less mobilebabies or those with more sensitive skin. On the other hand, anintentional design that is smoother and closer fitting to the skin maycommunicate a contour fitting design intended for daytime wear, times ofhigh activity such as walking, hiking, or playing sports. A contourfitting design may also be intended for use on older more mobilechildren for example toddlers or walking/running children. Theintentional, well-defined and deliberate textures and zones of textureenabled by beamed elastic based laminates are consistent with textilegarments that typically have such identifiable textural patterns as wellas patterns to communicate function. For example, it is easy todifferentiate between leggings meant for lounging and leggings meant forhigh activity endeavors like aerobics, running or sports because of thevisual nature of the design and in particular the textures and/or zonesof texture.

The intentional, well-defined and deliberate textures and textural zonesenabled by beamed elastic laminates also can impact distribution offorces in the belt as well as sustained fit by providing structuralfeatures, for example vertically oriented gathers, enabled by thetextures themselves that increase bucking resistance and preventrollover, sagging, collapse and slippage of the elastomeric laminate inuse.

General

As shown in FIGS. 2H and 2I, an article component (e.g., a belt, a sidepanel, and ear panel, etc.) may comprise a plurality of the same ordifferent type and/or arrangement of bonds 322 or bond regions 324 thatmay be of similar shape, scale, disposition, and/or pattern in varioussections (e.g., Sections 1, 2, 3, 4, L, R, or M). The bonds 322 or bondregions 324 may be formed using an adhesive or may be formedmechanically, including heat, pressure, and/or ultrasonically, and mayjoin the first and second substrate layers 306 and 308 together, withelastic strands 316 therebetween, to form the absorbent articlecomponent. Each of the sections may comprise a plurality of the sametype and/or arrangement of bonds 322 or bond regions 324 to form thesame or similar texture zone (i.e., the same or substantially the samepresentation of texture). Alternatively, the bonds 322 or bond regions324 in one or more Sections 1, 2, 3, or 4 may be different from thebonds 322 or bond regions 324 in another section to form differenttexture zones. Different texture zones may also be formed by adjustingthe spacing, Dtex, and pre-strain of the elastic strands between thelayers of the laminate. It should also be noted that the texture and/orbond pattern may be mirrored across one or both of the longitudinaland/or lateral centerlines to create a balanced more holistic texturalappearance.

FIG. 2H illustrates linear, longitudinally extending, continuousultrasonic (comprising densified portions) bonds 322 disposed inSections 1 and 2 in the front waist region 36, arcuate ultrasonic bondsin Sections 1 and 2 in the back waist region 38, arcuate ultrasonic bondregions 324 in Sections 1, 2, and 3 of the back waist region 38, andspiral adhesive 319 in Section 4 in the back waist region 38. Each ofthese described bonds 322 and bond regions 324 join the first and secondsubstrate layers 306 and 308 together. These differences in bondingtype, pattern and shape will contribute to providing distinct andvisually discernible well-defined textural differences in the variousSections 1, 2, 3, 4, L, M, and/or R.

The garment-facing surface 2 of a substrate in the area where awearer-facing surface 4 of the article component is joined to thechassis, often by spiral or slot-coated adhesive, may have a discernabletextural difference even when it comprises the same bonding arrangementand the same elastic profile as adjacent areas of the article componentbecause the adhesive joining the article component to the chassis maypartially deaden the impact of elastics 316 in that area; further, theelastic strands may be severed so that they do not run continuouslyacross the chassis 200.

The bonds 322 or bond regions 324 joining the first and second substratelayers 306 and 308 together, where elastic strands 316 arethere-between, translate substantially the same texture on thegarment-facing surface 2 as of the elastomeric laminate 302 as thewearer-facing surface 4.

The elastomeric laminate 302 may comprise continuous bonds 322 (forexample, in the article of FIG. 2H, in the front waist region 36,several of the bonds extend continuously (longitudinally) acrossmultiple component sections—some bonds 322 extend continuously fromComponent Section 1 to 4, but are laterally discrete in that that theyare laterally spaced (Sea)) along a given shape or pattern.Alternatively bond regions 324 may be formed from a plurality of bondsites disposed in a particular pattern or shape (see, for example, FIG.2H, back waist region 38, Sections 1-3). Examples of the shapes orpatterns that can be formed from a plurality of discrete bond sitesinclude lines disposed parallel to one or both of the longitudinal orlateral axis or lines disposed angularly relative to one or both of thelongitudinal or lateral axis. The bond or bond regions may form variousopen shapes 324″ (e.g., arcs, curves, etc.—see FIG. 2H) and closedshapes 324′ (e.g., circles, triangles, squares, diamonds, etc.—see FIG.2H). Regarding closed shapes 324′, bonding leaves a center portion 321unbonded, while the perimeter is bonded via bonds 322, and the twocooperate to form the appearance of the closed shape 324′ (see FIG. 2H).

Bond Regions

Regarding bond regions 324, the discrete bonds forming a pattern orshape may be disposed within 5 mm or less of each other and moretypically within 3 mm of each other or less of one another (S1) (seeFIG. 2H′). These closely spaced bonds 322 may be considered part of thesame bond region 324.

With regard to particular bonding arrangements for yielding desirabletextures, an article component selected from an ear panel, a side panel,and/or a belt panel may, in Section 1, comprises longitudinallyextending bonds or bond regions transversely spaced from each other atan Average-Lateral-Bond-Spacing, and may, in Sections 2 or 3, compriselongitudinally extending bonds or bond regions transversely spaced fromeach other at a different Average-Lateral-Bond-Spacing than Section 1.The bonds or bond regions in these sections may have anAverage-Longitudinal-Bond-Length from about 20 mm to about 200 mm and anAverage-Lateral-Bond-Spacing from about 2 mm to about 20 mm.

Extend/Cooperate

The bonds 322 or bond regions 324 from one section may “extend into”another section or “cooperate” with bonds in various sections to form alarger composite shape. For instance, an end edge of a bond or bondregion in a section may substantially align with an end edge of the bondor bond region in an adjacent section such that the bond or bond regionis, or appears to be, continuous through multiple sections or such thata larger composite shape is formed (e.g., an arc, serpentine curves,etc.). For example, a bond or bond region in Section 1 may have an endedge that is substantially aligned with an end edge of a bond or bondregion in Section 2. In this way, a bond element may extend or appear toextend through Sections 1, 2, 3, 4 and/or L, R, and M. Furthermore, anend edge of a bond or bond region in a section disposed in a first waistregion may substantially align with an end edge of the bond or bondregion in an adjacent section disposed in a second waist region suchthat the bond or bond region is, or appears to be, continuous from afirst waist region to a second waist region such that a larger compositeshape is formed (e.g., an arc, serpentine curves, etc.).

General Texture Example

It may be desirable that each of the Sections 1, 2, 3, 4, and SectionsL, M, and R consist of a plurality of densified bonds 322 or bondregions 324 joining first and second nonwoven layers each having a basisweight from about 6 gsm to about 35 gsm, the densified bonds 322 or bondregions 324 overlapping a plurality of elastic strands 316 having anAverage-Strand-Spacing from about 0.25 mm to about 4 mm, or from about0.5 mm to about 2.5 mm, an Average-Dtex of from about 20 to about 300,or from about 40 to about 220, and an Average-Pre-Strain from about 50%to about 300%, or from about 75% to about 250% to form an elastomericlaminate that may be used as an article component, such as a belt flap.Said bonds 322 or bond regions 324 may have an Average-Bond-Width orAverage-Bond-Region-Width of from about 0.25 mm to about 5 mm, or fromabout 0.5 mm to about 2 mm, an Average-Bond-Length or anAverage-Bond-Region-Length of from about 5 mm to about 300 mm, or fromabout 20 mm to about 200 mm, and having an Average-Lateral-Bond-Spacingfrom about 2 mm to about 20 mm, or from about 4 mm to about 10 mm. Thedensified bonds 322 or bond regions 324 may overlap and dimensionallylock at least 15 elastic strands. One or more of the densified bondsoverlapping one or more of said elastic strands may have aCross-Sectional-Strand-Area in its relaxed disposition from about 0.002mm² to about 0.04 mm², and a Cross-Sectional-Bond-Void-Area of the bondfrom about 0.001 mm² to about 0.02 mm². A ratio of Bond-Width toBond-Length of at least two bonds of said plurality of densified bondsmay be between 4:1 and 300:1, or between 20:1 to about 200:1. And,further, a Dtex-to-Nonwoven-Basis-Weight-Ratio of a first elastic strand(of the plurality of elastic strands) and first and second nonwovenlayers may be from about 1.5 to about 7; a Dtex-to-Spacing-Ratio of theplurality of elastic strands may be from about 65:1 to about 300:1; aratio of Average-Lateral-Bond-Spacing to Average-Bond-Width may bebetween 1:1 to 50:1; a ratio of Average-Bond-Length toAverage-Bond-Width may be between 1:1 to 300:1; a ratio ofAverage-Longitudinal-Bond-Spacing to Average-Bond-Width may be between1:2 to 20:1; a ratio of Average-Bond-Length toAverage-Longitudinal-Bond-Spacing may be between 1:1 to 300:1.

Adhesive

One or more of Sections 1, 2, 3, 4, and Sections L, M, and R of anarticle component may be adhesive free. For example, sections havingdensified bonds joining first and second substrates together may beadhesive free. However, it may be desirable that these sectionscomprising densified bonds may also comprise adhesive, for example, in atri-laminate or quad-laminate configuration as described hereinafter. Inother words, the sections of the elastomeric laminate may comprise 2 ormore substrate layers and may comprise one or more bonding meansincluding, mechanical, thermal, ultrasonic, pressure, adhesive, cohesiveand combinations thereof. It may also be desirable that the componentarticle sections consist only of adhesive bonds holding the substratelayers, as well as the elastic strands therebetween. Areas that comprisesubstantially continuous fields or areas of adhesive joining theelastics and/or substrates of an elastomeric laminate, may result in asmoother texture. These smoother sections may be desirable inhigh-motion zone areas and wearer-facing surfaces in contact with thewearer. These smoother textures signal body-conforming contoured fit.These smoother adhesive sections may also be used to contrast macrotextures created by sections comprising intermittent bonds (e.g.,discrete ultrasonic bonds).

It should also be understood that one or more of the component sectionsmay comprise a single texture as illustrated in FIG. 1A Section 1showing a single texture with a heart tag graphic. Alternatively one ormore of the component sections may comprise 2 or more distinct texturesas illustrated in FIG. 1C Section 2. In certain embodiments, one or moreof the component sections in a first waist region may comprise the sametexture as one or more of the component sections in a second waistregion. In other embodiments the textures in a first waist region may bedistinctly different than the textures in a second waist region.

Section L and R, in one or both waist regions, may have a relativelysmooth texture enabled by application of a continuous field of adhesivejoining the elastics to the substrate layers of the elastomericlaminate, while Section M may have an intentional, well-defined textureenabled by an intermittent bond pattern formed by mechanical bonds,thermal bonds, ultrasonic bonds, pressure bonds, and/or bonds formedfrom adhesive, cohesive and combinations thereof. Alternatively, SectionM may comprise an outer nonwoven material comprising zones of varyingbasis weight and/or thickness—the outer nonwoven material comprisingzones of varying basis weight and/or varying thickness may extend from afirst waist edge through the crotch to the opposing waist edge or may bepresent only in the crotch region of the article. In certainembodiments, the outer nonwoven material comprising zones of varyingbasis weight and/or varying thickness may overlap with a portion of theelastomeric laminate and/or may form a portion of the elastomericlaminate.

Alternatively, Sections L and R, in one or both waist regions, may havea relatively smooth texture enabled by a tightly spaced pattern ofintermittent bonds or a continuous surface bond joining the elastics tothe substrate layers of the elastomeric laminate, while Section M mayhave an different texture enabled by an intermittent bond pattern havinga different spacing or pattern from the bond pattern in Sections L andR.

Different Texture Zones

When textures vary (via different bonding arrangements, including one ormore of different Average-Bond-Width, Average-Bond-Length,Average-Longitudinal-Bond-Spacing, and Average-Lateral-Bond-Spacing inone or more of Sections 1, 2, 3, 4, L, M, and R), they may havedifferent parametric values, including one or more ofPercent-Contact-Area, Rugosity-Frequency, Rugosity-Wavelength,2-98%-Height-Value, Emtec-TS7-Value, and/or Emtec-TS750-Value. Differenttexture zones may have at least a 10%, 15%, or 20% different value ofeach of these parameters in one or more of Sections 1, 2, 3, 4, L, M,and R. Sections 1 and 4, which may include the appendix region (i.e.,the portion of a flap below a side seam), may have different texturesversus other sections of the component or the article because of thedesire to make the sections along the waist and leg openings appear morefinished or to communicate a greater level of elasticity or stretchalong these openings. Further, it may be desirable that the texturezones adjacent to the waist and leg openings are the same or similar, atleast in Sections L and R. Further, it may be desirable that Sections Land R have a Percent-Contact-Area greater than Section M. It may also bedesirable if a first texture zone has a Percent-Contact-Area of lessthan about 30% and the second texture zone has a Percent-Contact-Area ofgreater than about 35%. Alternatively, it may be desirable if a firsttexture zone has a Percent-Contact-Area of less than about 40% and thesecond texture zone has a Percent-Contact-Area of greater than about50%.

It may be desirable to compliment the distinct texture zones with common(i.e., similarly shaped and sized and disposed) graphic zones and/orcolor zones, each of the texture, color/graphic zones being disposed tooverlap each other on the absorbent article. More particularly, a commoncolor field and/or graphic pattern (e.g., 700) may overlap a similarlyshaped, sized, and disposed bonding arrangements (e.g., 600). FIGS. 3A-Fillustrate different color fields and/or graphic patterns, wherein manyof the different color field and/or graphic pattern 700, 701, 702, 703,704, etc. are in the shape and size and disposition of a differenttexture zone 600, 601, 602, 603, 604, etc. in FIGS. 2A-G. For instancecolor field and/or the graphic pattern of 700 may be a distinctlydifferent color and/or pattern versus 701, 702, 703, and 704, just astexture zone 600 may be a distinctly different bonding pattern orarrangement versus 601, 602, 603, and 604.

It may, however, also be desirable to have color fields and/or graphicpatterns zones or that do not compliment or coordinate with distincttexture zones, such that certain color fields and/or graphic patternsare larger or smaller or differently shaped versus the texture zonesthat they overlap with. For instance, in FIGS. 2A versus 3A, 601 is adistinct texture field, while the common area of the color field and/orgraphic pattern 701 and 701′ is two distinct zones.

It may also be desirable to have color fields and/or graphic patternszones that overlap with texture zones that have little or no bonding,for example, the area 603 in FIG. 2B has no texture, but is overlappedwith color field and/or graphic pattern 703 in FIG. 3B, such that theappearance of texture may coordinate with other areas that do havetexture.

FIG. 1G illustrates an absorbent article having a first relativelysmooth texture, Percent-Contact-Area of greater than 40%, in Sections Land R wherein the elastomeric laminate is formed from 2 substrate layerswith elastics bonded between via a substantially continuous adhesivelayer. Section L and R may also comprise apertures 388 that are formedin the elastomeric laminate. The apertures may pass from the outersurface through the laminate to the interior surface and may be disposedin a random pattern or in an intentional pattern (as shown in FIG. 1G).Section M comprises a different texture than sections L and R. SectionsL and R as shown in FIG. 1G have a higher Percent-Contact-Area, greaterthan 40%, than Section M (Percent-Contact-Area of less than 35%).Section M may be formed of a bi-laminate or tri-laminate and maycomprise an intermittent pattern of bonds formed by thermal, pressure,heat, ultrasonic or adhesive. Alternatively, Section M may comprise anouter substrate layer formed of a nonwoven material comprising areas ofvarying basis weight or varying thickness.

Texture Parametrics

Relating to the characteristics of the texture, one or more of Sections1, 2, 3, 4, L, M, and R may have: an Emtec-TS7-Value of less than about12; an Emtec-TS750-Value of less than 60; a Rugosity-Frequency of fromabout 0.2 mm⁻¹ to about 1 mm⁻¹; a Rugosity-Wavelength of from about 0.5mm to about 5 mm; and a 2%-98%-Height-Value of <1.6 mm. It should beunderstood that one or more of the Emtec, Rugosity-Frequency,Rugosity-Wavelength and/or 2%-98%-Height-Value in Sections L and R maybe different from the Emtec, Rugosity-Frequency, Rugosity-Wavelengthand/or 2%-98%-Height-Value in Section M.

Performance Parametrics

Texture zones of the present disclosure should not impact the desiredperformance of the article or the article components. As such, one ormore of Sections 1, 2, 3, 4, L, M, and R may comprise a texture zone andmay have: a Section-Modulus of from about 4 gf/mm to about 10 gf/mm; aCantilever-Bending of less than about 40 mm; an Air-Permeability of atleast one of: a) greater than about 40 cubic meters/square meter/minuteAir-Permeability at 0 gf/mm (no extension); b) greater than about 60cubic meters/square meter/minute Air-Permeability at 3 gf/mm (slightextension); and c) greater than about 80 cubic meters/squaremeter/minute Air-Permeability at 7 gf/mm (moderate extension); aPercent-Contact-Area of at least one of: a) greater than about 10% at100 um, b) greater than about 20% at 200 um, and c) greater than about30% at 300 um; a Force-Relaxation-Over-Time from about 5% to about 30%;less than 10% of the elastic strands are broken between adjacent bondsthat are transversely spaced less than 20 mm from each other; less than20% of the elastic filaments are broken between adjacent bonds that aretransversely spaced less than 20 mm from each other; a Peel-Strengthbetween first and second nonwoven layers greater than about 1 N/cm up toabout 10 N/cm or up to and including substrate failure; greater than 70%of the elastic strands in one of the L and R article sections extends atleast 50% of a lateral width (laid out flat, i.e., extended) of therespective L and R sections; and a Pressure-Under-Strand less than 1 psi(according to the conditions defined by the Pressure-Under-Strand Test).

Random Texture

As shown in FIG. 4, surprisingly unique textile visuals can be achievedby randomly spacing the plurality of elastics between substrate layersin combination with darker colored strands with a lighter colorednonwoven or lighter colored strands with a darker colored nonwoven. Oneway to achieve this effect is to have more strands (e.g., 5%, 10%, 15%)in one or more of Sections 1, 2, 3, or 4, versus one of the othersections. In a single section component, the strands may beasymmetrically spaced. The ΔE* of such a section may be greater than 7and less than about 60.

This effect may be enhanced by using elastomeric laminates of thepresent disclosure (i.e., having an Average-Strand-Spacing from about0.25 mm to about 4 mm, an Average Dtex of from about 20 to about 300,and an Average-Pre-Strain from about 50% to about 300%) and havingelongate bonds or bond regions extending along the laminate (at about 90degrees to the direction of the elastic strands), where the bonds orbond regions have an Average-Bond-Length of from about 5 mm to about 150mm, and having an Average-Lateral-Bond-Spacing from about 2 mm to about15 mm.

Multiple Beams

It should be appreciated that one or more texture zones may be formedfrom multiple beams of elastic. For example, separate beams may comprisea different number of elastics, and/or the beams may have elasticshaving different decitex, and/or the elastics of the two beams may bedisposed at different spacing, and/or the separate beams may deliverelastics having different pre-strain, and/or the different beams maydeliver elastics having different orientations in the product, e.g.liner, arcuate, angled, etc. The resultant portions created from such amulti-beam approach may have different textures.

Application-Force, Sustained-Fit-Load-Force, and Sustained-Fit-UnloadForce of the Present Disclosure

Absorbent articles comprising traditional stranded elastics andelastomeric laminates typically require high Application-Forces toensure adequate Sustained-Fit-Load-Forces andSustained-Fit-Unload-Forces to maintain the article's position on thewearer. The absorbent articles comprising traditional stranded elasticsdo not retain elastic forces as well as articles comprising beamedelastics and as such typically have significant consumer and performancetrade-offs, i.e., difficult application for the consumers and goodsustained fit and gasketing or ease of application for consumers andpoor sustained fit, gasketing and leakage performance.

Higher decitex elastic of the traditional stranded elastic laminateshave between 30 and 60 individual elastic filaments twisted together toform the elastic strand. Low decitex elastic of the beamed elasticlaminate have between 3 and 7 elastic filaments. Without being bound bytheory, the low decitex elastic used in the beamed elastic laminate havefewer individual filaments than the higher decitex elastic. In somecases the lower decitex may have as few as 1/10^(th) of the number offilaments. Given the elastic filaments are twisted to form the strands,the elastic comprising more filaments will have more filament tofilament interaction as the strands extend and contract. This increasein interaction may adversely impact the retention of sustained fit loadand unload forces. Furthermore, the larger bundle of twisted filamentsalso will likely result in different filaments being bonded to thesubstrates of the laminate at different points along the strandintroducing additional constraints on various filaments in the bundlefurther impacting the filaments ability to extend and contract. Thelower decitex elastic strands of the beamed elastic laminate comprisesignificantly fewer filaments and as such the filaments can extend andcontract more independently of each other providing an elastic responsecloser to a monofilament strand.

An absorbent article comprising a beamed elastic laminate may have anApplication-Force of between about 900 gf and about 1,600 gf, aSustained-Fit-Load-Force of greater than about 30% of theApplication-Force and a Sustained-Fit-Unload-Force of greater than about25% of the Application-Force. Alternatively, an absorbent articlecomprising a beamed elastic laminate may have an Application-Force ofbetween about 1,500 gf and about 3,000 gf, a Sustained-Fit-Load-Force ofgreater than about 35% of the Application-Force and aSustained-Fit-Unload-Force of greater than about 30% of theApplication-Force.

In order to create the optimum usage experience it is desirable toprovide an absorbent article having the right balance ofApplication-Force, Sustained-Fit-Load-Force andSustained-Fit-Load-Force. FIG. 5A shows a force elongation curve thatillustrates where these forces are taken along the curve. The desiredoutcome would be to have an article having an Application-Force that isequal to or lower than other comparative competitive products and aSustained-Fit-Load-Force and Sustained-Fit-Unload-Force that are bothhigher than other comparative competitive products. For products havingsimilar Application-Force the Sustained-Fit-Load-Force andSustained-Fit-Unload-Force can also be reflected as a percentagerelative to the Application-Force. Actual Application-Forces,Sustained-Fit-Load-Forces and Sustained-Fit-Unload-Forces of inventiveembodiments, as well as competitive products, can be found in Table A(below). FIG. 5B is an illustration of the data from Table A whichillustrates the superior Sustained-Fit-Load-Forces andSustained-Fit-Unload-Forces of the inventive embodiments versuscompetitive products. Two products, Adhesively Bonded Beamed Elastic(inventive embodiment) and Easy Ups (Size 4), illustrated in FIG. 5Cwere selected to conduct on mannequin fit testing. During the mannequinfit test, the products were applied to a mechanically manipulatedmannequin that underwent a fixed series of motions that simulate realbaby movements. After application the initial position of where the pantarticle rests on the mannequin was measured: front waist initialposition, back waist initial position, and initial rise (measured from afixed point in the front through the crotch to a fixed point in theback). FIG. 5D shows the initial fit of Easy Ups from the front and FIG.5F shows the initial fit of Easy Ups from the back. FIG. 5E shows theinitial fit of an inventive embodiment from the front and FIG. 5G showsthe initial fit of an inventive embodiment from the back. The articlewas then loaded with 75 mls of synthetic urine and then undergoes themechanical manipulation steps. After the first cycle of mechanicalmanipulation the product was again loaded with another 75 mls ofsynthetic urine and then subjected to a second cycle of mechanicalmanipulation. After the second cycle, the product final position wasmeasured, front waist final position, back waist final position, andfinal rise. FIG. 5D′ shows the final fit of Easy Ups from the front andFIG. 5F′ shows the final fit of Easy Ups from the back. FIG. 5E′ showsthe final fit of an inventive embodiment from the front and FIG. 5G′shows the final fit of an inventive embodiment from the back. The blacklines on FIGS. 5D′, 5E′, 5F′ and 5G′ are included to provide a referencefor comparison between the competitive market product and the inventiveembodiment. From the charts, tables, and images it is clear that theinventive embodiment delivers superior sustained fit relative to thecompetitive market product as a result of the inventiveSustained-Fit-Load-Forces and Sustained-Fit-Unload-Forces of the beamedelastomeric belts. The actual measurements from the mannequin test areshown in Table B (below). The data shows that the competitive marketproduct, Easy Ups had 162% more sagging at the front, 200% more saggingat the back and 202% more sagging in the rise than the inventiveembodiment, adhesively bonded beamed elastic. In addition Easy Ups had456% more slip than the adhesively bonded beamed elastic product.

TABLE A Percent of 1st Cycle Sustained-Fit- Percent of Extension atSustained-Fit- Sustained-Fit- Unload- Sustained-Fit- 18.2 gf/mmApplication- Unload- Load-Force Force load-Force product (mm) Force (gf)Force (gf) (gf) retained (%) retained (%) Ultrasonically Bonded BeamedElastic (S4) 206 1280 472 639 36.9% 49.9% Adhesively Bonded BeamedElastic (S4) 200 1426 513 710 36.0% 49.8% Easy Ups (S4) 196 1318 239 46318.2% 35.1% Goon (S4) 200 1364 321 542 23.5% 39.8% Merries (S4) 203 1253307 487 24.5% 38.9% Moony (S4) 183 1455 246 463 16.9% 31.8% AlwaysDiscreet (S/M) 558 1753 505 834 28.8% 47.6% Always Boutique (S/M) 4992326 644 1001 27.7% 43.0%

TABLE B Front Initial to Final Δ Rise Initial to Back Initial toDescription (mm) Final Δ (mm) Final Δ (mm) Total SLIP Crotch Sag FIGS.5D, 5D′, 5F, Easy Ups −86 −85 −50 −469 −41 −44 5F′ FIGS. 5E, 5E′, 5G,Adhesively Bonded −53 −42 −25 260 −9 −33 5G′ Beamed Elastic Not ShownUltrasonically −49 −48 −31 261 −20 −28 Bonded Beamed Elastic Easy UpsHas Greater Sag than Adhesive 162% 202% 200% 180% 456% 133% BeamedElastic (shown as a percentage)

Ratios of the Present Disclosure

Many absorbent articles comprising traditional elastic strandedlaminates have used adhesive to bond the elastic materials to thesubstrates forming the elastomeric laminate. The approaches haveincluded strand coating where the adhesive is directly applied to theelastic strands and surface coating where the adhesive is applied to oneor both substrates of the elastomeric laminate and then the elastic issandwiched between the substrates. Some attempts have been made tocreate thermal bonds spaced on either side of the elastic to trap it andhold it in place between the substrates.

The structure of beamed elastics, low decitex (small diameter), narrowspacing and low strain provide a unique combination of properties thatenable the beamed elastic materials to be present inside of a thermal,mechanical or ultrasonic bond, in other words the elastic strands are sofine that the bond can be created continuously from one side of theelastic strand across the strand to the other side of the strand. Infact, the bond may extend continuously across multiple elastic strands.It has been discovered that in order to enable a fully ultrasonicallybonded beamed elastic laminate a couple of relationships may bedesirable: 1) a specific Dtex-to-Nonwoven-Basis-Weight-Ratio range maybe maintained to ensure that in the bond area there is sufficientnonwoven material to encircle the elastic strand during the bondingprocess and 2) a specific range of Void-Area-to-Strand-Area-Ratio mayalso be maintained to ensure a dimensional lock around the elastic. Thevoid area of the bond is created by formation of the bond around anelongated elastic having an elongated diameter (less than the relaxedstrand diameter) when the elastic is allowed to relax, the elasticdiameter increases as does the surface area thereby dimensionallylocking the wider elastic strand in the narrower void space of the bond.

Another ratio that is relevant to forming a beamed elastic laminate withthe right balance of Application-Force (ease of application),Sustained-Fit-Load-Force, and Sustained-Fit-Unload-Force for properpositioning and gasketing of the article is the Dtex-to-Spacing-Ratioratio. As the decitex of the elastic increases the force to extend theelastic also increases. To maintain the proper balance of forces thespacing between the elastics may also be increased. As the decitexdecreases, the elastic spacing should also decrease to ensure the properbalance of forces. Therefore, to maintain the proper balance of forcesthe Dtex-to-Spacing-Ratio may desirably be maintained.

The prior art does not define the boundaries of the ratios ofAverage-Strand-Spacing, Average-Dtex and Nonwoven-Basis-Weight ofultrasonically bonded stranded elastomeric laminates needed to deliverthe desirable performance parametrics of article components, especiallyincluding Section-Modulus. Thus, the art fails to disclose the key fordelivering how to reliably make elastomeric laminates where densifiedbonds overlap the elastic strands, such that the strands aredimensionally locked, in a way that prevents breakage of the strands.Thus, the art fails to disclose elastomeric laminates that are trulysuitable for use as disposable absorbent article components. Key ratiosdisclosed herein yield desirable elastomeric nonwovens for use asdisposable absorbent article components. The key ratios forultrasonically bonded laminates include: Dtex-to-Spacing-Ratios,Dtex-to-Nonwoven-Basis-Weight-Ratios, andVoid-Area-to-Strand-Area-Ratio.

Referring to FIG. 15A, the linkage of Dtex-to-Spacing-Ratio andSection-Modulus for Spandex strands is shown. Dtex-to-Spacing-Ratio'sfrom about 65:1 to about 215:1 will result in a Section-Modulus of fromabout 4.0 gf/mm to about 9 gf/mm.

Referring to FIG. 15B, other desirable Dtex-to-Spacing-Ratios are shown.A Dtex-to-Spacing-Ratio of from about 40:1 to about 88:1 would deliver avery low Section-Modulus. This would be desirable for small babies i.e.,preemies. This very soft feel would also result in very little forceincrease as the infant moves and stretches the garment.

Elastomeric laminates of the present disclosure may have aDtex-to-Spacing-Ratio of from about 88:1 to about 140:1 would deliver alow to moderate Section-Modulus. This would be desirable for smallbabies who are not yet walking. It would deliver low to moderate forceincrease for additional applied stretch. It would also enables a broadfit range with few product offerings.

Elastomeric laminates of the present disclosure may have aDtex-to-Spacing-Ratio of from about 140:1 to about 233:1 is desirablefor most walking babies and adults. It would deliver a Section-Modulusthat minimizes product sagging while providing a comfortable fit. Itwould also enable a broad fit range with few product offerings.

Elastomeric laminates of the present disclosure may have aDtex-to-Spacing-Ratio of from about 233:1 to about 300:1 would mimic afilm like Section-Modulus and feel. This is desirable when offering amore tailored fit, i.e., more sizes available over a target fit range.

Elastomeric laminates of the present disclosure may have a ratio ofAverage-Longitudinal-Bond-Spacing to Average-Bond-Width from about 1:2to about 20:1, from about 5:1 to about 15:1, or from about 7:1 to about13:1.

Elastomeric laminates of the present disclosure may have a ratio ofAverage-Lateral-Bond-Spacing to Average-Bond-Width from about 1:1 toabout 50:1, from about 10:1 to about 30:1, or from about 15:1 to about20:1.

Elastomeric laminates of the present disclosure may have a ratio ofAverage-Bond-Length to Average-Bond-Width from about 1:1 to about 300:1,from about 10:1 to about 200:1, or from about 20:1 to about 100:1.

Role of Parameters

Stranded elastomeric laminates of the present disclosure outperformstranded elastomeric laminates of the art in many of the relevantparameters that measure how laminates perform, including:

Hip-Hoop is relevant because it is the measure of the elongation andcontraction of the closed circumference of an absorbent article. Thedata generated from this test can be used to determine theApplication-Force, Sustained-Fit-Load-Force and theSustained-Fit-Unload-Force.

Application-Force is relevant because it is the measure of the forcethat a wearer of caretaker might encounter while donning the absorbentarticle.

Sustained-Fit-Load-Force is relevant because it is the measure of theforce that an article applies to the wearer when the wearer's waistextends for example during respiration or during wearer movement likewhen a wearer goes from a standing position to a sitting position.

Sustained-Fit-Unload-Force is relevant because it is the measure of theforce that an article applies to the wearer when the wearer's waistcontracts for example during respiration or during wearer movement likewhen a wearer goes from a sitting position to a standing position.

Surface Topography (Percent-Contact-Area, Rugosity-Frequency,Rugosity-Wavelength, and 2-98%-Height-Value) is relevant because it isthe measure of the textural properties of the elastomeric laminates. Thesurface topography enables definition of Percent-Contact-Area which isthe portion of the surface that may be in contact with the skin,Rugosity-Frequency, and Rugosity-Wavelength characterize the structuralaspects of the texture and the 2-98%-Height-Value helps define thethickness of the elastomeric laminate.

Pressure-Under-Strand (Average-Pressure-Under-Strand) is relevantbecause it is the measure of the pressure the elastic will put on theskin. Lower pressure under strand correlates with less skin indentationand marking resulting in improved skin condition and comfort.

Air-Permeability is relevant because it is the measure of how easily airis passed through the elastomeric laminate, Air-Permeability istypically used to measure the breathability of various fabrics includingwater impermeable fabrics. Air-Permeability is typically measured inunits of volume/surface area/unit time. The main influences on airpermeability are the density of the material and its structure. Fabricscan be coated or otherwise treated to modify their air permeabilityeither selectively or over the entirety of the fabric.

Force-Relaxation-Over-Time is relevant because it is the measure of anelastomeric laminates ability to retain its force over time under afixed load. Certain Spandex materials can retain greater than 70% oftheir force over time while other elastic approaches like extrudedstrand elastics may lose as much as 70% of their force over time.

Emtec is relevant because it is an objective measuring instrument andthe only existing device, which fulfills all the according requirementsin the nonwoven and textile industry. It simultaneously gathers allsingle relevant parameters, which have an influence on the hapticcharacteristics of nonwovens and textiles, which are: softness,smoothness/roughness, and stiffness. The correlation of Emtec measuredresults to reliable hand panel numbers, determined by experienced handpanels, is excellent (up to 100%) according to the manufacturer.

Color-Contrast is relevant because it leverages small scale colormeasurements of elasticized laminate where the elastics strands aresignificantly different in color from the regions between the strandscan be made from calibrated scanned images. These paired colormeasurements are then used to calculate a Color-Contrast for thelaminate.

Section-Modulus is relevant because it is the measure of the slope of aforce elongation curve within a given section of the elastomericlaminate. Relatively, if the force increases rapidly with elongation thematerial is higher modulus than one in which the force increases moreslowly with elongation. It may be desired to have sections with differ.

Cantilever-Bending is relevant because it is the measure of flexuralbending vs length. The test is run with a target deflection and thelength of extension required to reach the target deflection is recorded.The shorter the length the more flexible the material is deemed to be.

These parameters are described in greater detail below. Also, pleaserefer to the Methods section for details about performing tests for eachof these parameters.

Section-Modulus

Referring to FIG. 14, the determination of Section-Modulus from anycombination of Average-Strand-Spacing and Average-Dtex for Spandexstrands is shown. The relevance of Section-Modulus to productperformance and consumer perception is significant for two key reasons.First, Section-Modulus is how consumers perceive the ease ofapplication, fit and comfort of a product. Section-Modulus conveys theease and extent of elongation at a given applied force. Too high aSection-Modulus, and consumers perceive the product to be too small, tootight and uncomfortable with higher potential for skin marking. On theother hand, too low of a Section-Modulus and the consumer perceives theproduct to be too big, too loose and not able to stay in place nor ableto properly gasket around the legs and waist. Consumer testing hasrevealed that a Section-Modulus of between from about 4 gf/mm to about 9gf/mm are the preferred range for absorbent garments.

A second key impact of Section-Modulus is in the number of sizes thatare needed within an array of products to fit a range of consumers. Thehigher the Section-Modulus, the more sizes that may need to be offeredto achieve proper fit given the range over which consumers perceive theproduct to be comfortable.

Surface Topography

Surface Topography is the areal surface topology of the elastomericlaminate measured using optical profilometry. The 3D surface data arethen sampled and processed to extract several parameters that describethe Percent-Contact-Area and 2-98% Height of the elastomeric laminatespecimen surface as well as the Rugosity-Frequency andRugosity-Wavelength.

Referring to FIGS. 6A-E and Table C (below), for comparison of variousabsorbent articles, we have selected a first setting to determine thePercent-Contact-Area corresponding with the thickness of the epidermis,100 micrometers, a second setting at 2X the epidermis or 200 micrometersand a third setting at 3X the epidermis of 300 micrometers. It isapparent from the surface topography measurements that the beamedelastic laminates 302 (see FIGS. 6A-C) have significantly greatersurface contact at 100 um (1.5× to 1.9×), 200 um (1.8× to 2.5×) and 300um (1.9× to 2.7×) compared to the structures of the prior art (see FIGS.6D and 6E). In addition, the 2%-98%-Height-Value which is derived fromthe surface topography data also shows a significant difference insurface smoothness for the beamed elastic laminate 302 versus the priorart structures. These differences in increased surface contact as wellas surface smoothness will have a direct and significant impact onminimizing or eliminating skin marking of the various structures thatcan be created from beamed elastic laminates 302. In contrast, the dataabove 2% to 98% Height Value shows that the prior art product have amuch rougher surface due in part to their larger decitex elastic andlarger spacing which results in larger uncontrolled random rugosities.Combine the larger uncontrolled rugosities with the significantly lowerPercent-Contact-Area and one can see that the pressure on the skin andskin marking is likely to be significantly greater for the prior artproduct executions and significantly lower for articles comprising thebeamed elastic laminates.

Elastomeric laminates 302 of the present disclosure may have aPercent-Contact-Area at 100 um of greater than about 13% and/or aPercent-Contact-Area at 200 um of greater than about 27% and/or aPercent-Contact-Area at 300 um or greater than about 39%. In addition,the elastomeric laminates 302 of the present disclosure may have a2%-98%-Height-Value of less than about 1.6.

Emtec

Emtec is an objective measuring instrument and the only existing device,which fulfills all the according requirements in the nonwoven andtextile industry. It simultaneously gathers all single relevantparameters, which have an influence on the haptic characteristics ofnonwovens and textiles, which are: Softness, Smoothness/Roughness, andStiffness. The correlation of Emtec measured results to reliable handpanel numbers, determined by experienced hand panels, is excellent (upto 100%) according to the manufacturer. EMTEC has proven to be avaluable means to measure softness and tactile properties of variouselastomeric laminates. Such elastomeric laminates, due to their complexconstruction, have a range of parameters that can affect the tactileproperties of the laminate. For example, nonwoven basis weight, bondpattern, texture, elastic dtex, elastic pre-strain, elastic spacing,etc. can impact a panelists ability to discern softness and smoothnesswithout the biases introduced by other visual or tactile elements. EMTEChas been proven to correlate with hand panel assessments and as such canprovide an unbiased assessment of the elastomeric laminates themselves.It may be desirable to provide portions of an elastomeric laminatecomprising an Emtec-TS7-Value of less than about 12 and anEmtec-TS750-Value of less than 60. It has also been determined that anEmtec-TS750-Value: Emtec-TS7-Value ratio of <8 is also particularlydesirable.

Process of the Present Disclosure

This section provides some details related to the process of makingstranded elastomeric laminates of the present disclosure. Referring toFIGS. 9A and 9B, a plurality of elastic strands 316 (from about 10strands to about 1500 strands having a decitex from about 10 to about400) unwind about a first axis of rotation 346 from a first beam 314(which is a first metering device 310) in the machine direction MD andtransfer the plurality of elastic strands 316 from the first beam 314(e.g., a warp beam) to a second metering device 312 (which includes afirst roller 323 having a second axis of rotation 329 and a secondroller 331 having a third axis of rotation 334, which form a nip 336).The plurality of elastic strands 316 may be stretched along the machinedirection MD between the first metering device 310 and the secondmetering device 312 to prestrain the plurality of elastics 316 (fromabout 50% to about 300%). The stretched elastic strands 316 may bejoined via an adhesive 351 from an adhesive applicator 349 (or theplurality of elastics 316 may be joined via other suitable means, suchas ultrasonically) with a first substrate layer 306 and a secondsubstrate layer 308 at the second metering device 312 to produce anelastomeric laminate 302, such that each of the strands are spaced (inthe CD) in the elastomeric laminate from about 0.25 mm to about 4 mm. Itis this process that forms the elastomeric laminate 302 of the presentdisclosure and that may be further incorporated into the variousabsorbent article components such as the belts, ear panels, side panels,transverse barriers, topsheets, backsheets, cuffs, waistbands,waistcaps, and/or chassis to offer the benefits described in this patentapplication. Further details of the process of creating beamedelastomeric laminate(s) for use in disposable absorbent articles aredisclosed in U.S. Publication No. 62/436,589, titled “Methods andApparatuses for Making Elastomeric Laminates with Elastic StrandsUnwound from Beam,” first-named inventor being Schneider, filed on Dec.20, 2016. The elastomeric laminate 302 may be produced as part of theabsorbent article manufacturing line, or may be produced offline, andunwound as an elastomeric laminate that is fed into the absorbentarticle manufacturing line.

Elastomeric Laminates of the Present Disclosure

An “elastomeric laminate 302” of the present disclosure may comprise aplurality of elastics 316 between a first substrate 306 and a secondsubstrate layer 308, where the plurality of elastics 316 (often referredto as a “first plurality of elastics,” a “second plurality of elastics,”etc.) has an Average-Strand-Spacing from about 0.25 mm to about 4 mm, anAverage-Dtex from about 10 to about 400, and an Pressure-Under-Strandfrom about 0.1 to about 1 psi. Said elastomeric laminate 302 may be usedto form various article components or at least a portion of variousabsorbent article components, e.g. a belt, side panel, waistband or legcuff. Further, the elastomeric laminate 302 may be used to form regionsof the article or at least a portion of an article region, e.g. frontwaist region, crotch region or back waist region. When the elastomericlaminate 302 forms at least a portion of at least one of the groupconsisting of a belt, a chassis, a side panel, a topsheet, a backsheet,and an ear panel, and combinations thereof, the plurality of elastics316 of the elastomeric laminate 302 may comprise from about 40 to about1000 elastic strands. And, when the elastomeric laminate 302 forms atleast a portion of at least one of the group consisting of a waistband,a waistcap, an inner leg cuff, an outer leg cuff, and combinationsthereof, the first plurality of elastics 316 of the elastomeric laminate302 may comprise from about 10 to about 400 elastic strands. Ultimately,“plurality of elastics” is a term of context, where certain properties(e.g., Average-Dtex, Average-Strand-Spacing, Pressure-Under-Strand,etc.), arrangements, attributes, characteristics, disposition, etc. ofthe elastics are referenced to define what a certain “plurality ofelastics” is.

Further, the elastomeric laminate 302 may form at least a portion of oneor more of the group of article components including a belt 430, a sidepanel 330, chassis 200, a topsheet 124, backsheet 125, and an ear panel530, the elastomeric laminate 302 may comprise a plurality of elastics316 having from about 40 to about 1000 elastic strands with anAverage-Strand-Spacing from about 0.25 mm to about 4 mm, Average-Dtexfrom about 10 to about 400, an Average-Pre-Strain from about 50% toabout 300%; and a first substrate 306 and a second substrate 308 eachhaving a basis weight from about 6 grams per square meter to about 45grams per square meter.

Further, when the elastomeric laminate 302 may form at least a portionof one or more of the group of article components including a belt 430,a side panel 330, chassis 200, a topsheet 124, backsheet 125, and an earpanel 530, the elastomeric laminate 302 may: comprise a plurality ofelastics 316 having from about 50 to about 825, from about 100 to about650 elastic strands, or from about 150 to about 475 elastic strands;comprise a plurality of elastics 316 having an Average-Strand-Spacingfrom about 0.5 mm to about 3.5 mm, or from about 0.75 mm to about 2.5mm; comprise a plurality of elastics 316 having an Average-Dtex fromabout 30 to about 300, or from about 40 to about 200; comprise aplurality of elastics 316 having an Average-Pre-Strain which may be fromabout 75% to about 300%, or from about 100% to about 250%.

When the elastomeric laminate 302 may form at least a portion of one ormore of the group of article components including a waistband 122,waistcap 123, inner leg cuff 150, outer leg cuff 140 and a transversebarrier 16, and may comprise a plurality of elastics 316 having fromabout 10 to about 400 elastic strands with an Average-Strand-Spacingfrom about 0.25 mm to about 4 mm, Average-Dtex from about 10 to about400, an Average-Pre-Strain from about 50% to about 300% and a firstsubstrate 306 and/or second substrate 308 each having a basis weightfrom about 6 grams per square meter to about 45 grams per square meter.

Further, when the elastomeric laminate 302 forms at least a portion ofone or more of the group of article components including a waistband122, waistcap 123, inner leg cuff 150, outer leg cuff 140 and atransverse barrier 16, the elastomeric laminate may: comprise aplurality of elastics 316 having from about 15 to about 300 elasticstrands, from about 20 to about 225 elastic strands, or from about 25 toabout 150 elastic strands; comprise a plurality of elastics 316 havingan Average-Strand-Spacing from about 0.5 mm to about 3.0 mm, or fromabout 0.75 mm to about 2.5 mm; comprise a plurality of elastics 316having an Average-Dtex from about 30 to about 300, or from about 40 toabout 250; comprise a plurality of elastics 316 having anAverage-Pre-Strain from about 75% to about 300%, or from about 100% toabout 250%.

Any one of the belt 430, side panel 330, ear panel 530, chassis 200,topsheet 124, backsheet 125, waistband 122, waistcap 123, inner leg cuff150, outer leg cuff 140 or transverse barrier may: comprise anelastomeric laminate 302 comprising a plurality of elastics 316 havingPressure-Under-Strand from about 0.1 psi to about 1 psi, or from about0.2 psi to about 0.8 psi; comprise an elastomeric laminate comprising anAir-Permeability at 0 gf/mm (no extension) of greater than about 40cubic meters/square meter/minute and/or a level of Air-Permeability at 3gf/mm (slight extension) of greater than about 60 cubic meters/squaremeter/minute and/or a level of Air-Permeability at 7 gf/mm (moderateextension) of greater than about 80 cubic meters/square meter/minute;comprise an elastomeric laminate comprising a Cantilever-Bending of lessthan about 40 mm or alternatively less than about 35 mm in otherembodiments the Cantilever-Bending may be less than 30 mm oralternatively less than 25 mm, or from about 15 mm to about 30 mm;comprise an elastomeric laminate comprising a Percent-Contact-Area ofgreater than about 13% at 100 um and/or greater than about 27% at 200 umand/or greater than about 39% at 300 um and/or a 2%-98%-Height-Value of<1.6 mm; comprise an elastomeric laminate comprising aPercent-Contact-Area of greater than about 13% at 100 um and/or greaterthan about 27% at 200 um and/or greater than about 36% at 300 um and/ora 2%-98%-Height-Value of <2.2 mm; comprise an elastomeric laminatecomprising a Rugosity-Frequency of from about 0.2 mm⁻¹ to about 1 mm⁻¹and a Rugosity-Wavelength of from about 0.5 mm to about 5 mm.

Beyond the beamed elastic strands 316 that may be used in each of theabsorbent article components, other elastic components such as elasticnonwovens, elastomeric films, elastomeric foams, elastomeric scrims, andelastomeric ribbons, or combinations thereof, may be used with thebeamed elastics 316.

Ultrasonic Bonds of the Present Disclosure Forming Densified Bonds

Referring to FIG. 10I, a first material 354, such as a first substrate306, may be bonded to a second material 356, such as a second substrate308, via one or a plurality of bonds 322. The bond may be formed bymelting the first material 354 and second material 356 together to forma densified region 311, that may be formed by ultrasonic bonding. Thebond 322 may completely (or substantially) surround and conform with theouter perimeter of the elastic strand 316 to define a dimensional lock.In this way, the densified bonds 322 may be said to overlap one or aplurality of the elastic strands 316. The bond or plurality of densifiedbonds 322 may hold the first and second materials 354 and 356 together,such that the two materials have a Peel-Strength of from about of atleast about 1 N/cm to about 5 N/cm or from about 2 N/cm up to about 10N/cm or up to and including substrate failure of one or both of thenonwoven substrates. Thus, the bond or plurality of bonds 322 maydimensionally lock the elastic strands 316 and hold the first and secondsubstrates together to so that the resulting elastomeric laminate 302 isuseful as an article component. While one or more of the bonds 322 mayoverlap one or a plurality of the elastic strands 316, one or more ofthe bonds 322 may form a densified region holding the first and secondmaterials 354 and 356 together, not overlap an elastic strand 316.

The first and second materials 354 and 356 (for example, inner and outerbelt layers 432 and 434) may be melted together to form a densifiedregion 311 around the elastic strand and to be bonded to each other; thedensified region may be formed by ultrasonics such that a void having aCross-Section-Bond-Void-Area corresponding substantially to the shapeand dimensions of the tensioned elastic strand(s) or individualfilaments making up the strand(s). As the elastic tension is released,the cross-sectional dimensions of the relaxed elastic (having aCross-Sectional-Strand-Area) increase causing the now larger elastic tobecome dimensionally locked in place by the relatively smaller void. Thedimensional lock holds the discrete length of the elastic strand in afixed position in the bond region with the first and second substrates.Therefore, it is important that the cross-sectional area of the voidspace of the bond is less than the cross-sectional area of the relaxedelastic strand(s), i.e., a Void-Area-to-Elastic-Area-Ratio of lessthan 1. It may be desirable to have a Void-Area-to-Elastic-Area-Ratio offrom about 0.25 to about 0.9, or from about 0.3 to about 0.7. In acontracted elastomeric laminate, the cross-sectional area of the voidspace of the bond is substantially the same as the cross-sectional areaof the contracted elastic strand(s) 316 held within the bond. In mostcircumstances the cross-sectional shape of the void will besubstantially the same as the cross-sectional shape of the elasticstrand 316 held within the bond.

While the elastic strand 316 is overlapped and dimensionally locked bythe densified bonds as described, the elastic strand 316 may be unbondedbetween densified bonds 322. Alternatively, the elastic strands may bebonded between the densified bonds 322 by adhesive. For instance, afirst elastic strand may be overlapped by at least 3 densified bondsjoining the first elastic strand to first and second nonwovens, and thefirst elastic strand may be unbonded between a first bond and a secondbond of the at least 3 bonds and the first elastic strand may beunbonded between the second bond and a third bond of the at least threebonds. Further, the first strand may unbonded between a third bond and afourth bond of the at least 3 bonds and the first elastic strand may beunbonded between the fourth bond and a fifth bond of the at least threebonds.

FIG. 10A is a detailed view of an elastic strand 316 in a stretchedstate secured with bonds 322 between the first and second substrates306, 308. The bonding process, may apply heat, pressure, ultrasonics orcombinations thereof, to a first region 350 of the first substrate 306and a second region 352 of the second substrate 308 such that firstmaterial 354 of the first substrate 306 and second material 356 of thesecond substrate 308 become malleable. In turn, the malleable first andsecond materials 354, 356 deform and completely surround an outerperimeter 358 of a discrete length of the stretched elastic strand 316in a bond region 360 forming a void that has substantially the samecross-sectional dimensions as the strained elastic strand 316.

A dimensional lock may be created between a portion of the elasticstrand 316 and the bond between the first and second materials 354, 356once the tension from the stretched elastic strand 316 is released. Thedimensional lock acts to hold and/or secure the elastic strand 316 in afixed position in the bond region 360. For the purposes of a generalexplanation, FIG. 10B shows a length of an elastic strand 316 in aunstretched or relaxed state, wherein the elastic strand 316 defines afirst cross-sectional area A1. And FIG. 10C shows a length of theelastic strand 316 from FIG. 10B in a stretched state, wherein theelastic strand 316 defines a second cross-sectional area A2 that is lessthan the first cross-sectional area A1. Thus, the cross-sectional areaof the stretched elastic strand 316 expands when tension is partially orfully released from the elastic strand 316. As discussed in more detailbelow, the tendency of the cross-sectional area of the elastic strand316 to expand helps create the dimensional lock. An important factor increation of the dimensional lock bond between the first and secondmaterial 354, 356 without cutting the stretched elastic strands 316 isthe Dtex-to-Nonwoven-Basis-Weight-Ratio. In order for the bond to havesufficient bond strength to prevent separation of the first and secondmaterial layers 354 and 356, without application of excessive combiningpressure that can cut the elastic strands 316 it is necessary to haveenough total nonwoven basis weight to substantially or completely wrapthe elastic strands and condense adequately to join the first and secondmaterials 354 and 356 to form the nonwoven bond regions surrounding theelastic strands. The Dtex-to-Average-Nonwoven-Basis-Weight-Ratio may befrom about 2 to about 13, from about 3 to about 10, or from about 4 toabout 8.

Turning next to FIG. 10D, a detailed view of an elastic strand 316, suchas shown in FIG. 10A, is provided wherein tension has been released (orreduced) on the elastic strand 316 and showing how the tendency of theelastic strand 316 to expand creates a dimensional lock in the bondedregion 360. FIGS. 10D and 10F show the elastic strand 316 as having afirst cross-sectional area A1 in an unbonded region 362 of theelastomeric laminate 302, wherein the first cross-sectional area A1 isgreater than the second cross-sectional area A2 of the stretched elasticstrand 316 shown in FIGS. 10A and 10E. And FIGS. 10D and 10G show theelastic strand 316 as having a third cross-sectional area A3 in the bondregion 360 of the elastomeric laminate 302, wherein the thirdcross-sectional area A3 is the same or about the same as the secondcross-sectional area A2 of the stretched elastic strand 316 shown inFIGS. 10A and 10E. As shown in FIG. 10G, the first and second materials354, 356 in the bond region 360 help prevent the cross-sectional area ofthe elastic strand 316 from expanding fully when tension on elasticstrand 316 has been reduced. As such, in some configurations, noadhesive may be applied to and/or present between the elastic strand 316and the first and second materials 354, 356. It is also to beappreciated that in some configurations, adhesive may be applied toand/or present between the elastic strand 316 and the first and secondmaterials 354, 356 to help the dimensional lock hold the discrete lengthof the elastic strand 316 in a fixed position in the bond region 360together with the first and second substrates 306, 308. In someconfigurations, adhesive and the dimensional lock in the bond regions360 may share the load exerted by elastic strand 316.

It is also to be appreciated that the elastic strands 316 herein bondedin accordance with the methods described herein may also be constructedfrom one or more filaments 364. For example, FIG. 10H shows across-sectional view of an elastic strand 316 in a bond region 360wherein the elastic strand 316 comprises a plurality of individualfilaments 364. As shown in FIG. 10H, the elastics strand 316 includesouter filaments 364 a surrounding an inner filament 364 b. The outerfilaments 364 a define the outer perimeter 358 of the elastic strand316, and the outer filaments 364 a may surround the inner filament 364 bsuch that the inner filament 364 b is not in contact with the firstmaterial 354 and the second material 356 in the bond 322. It is to beappreciated that the filaments 364 may be arranged in various positionswithin the bond region 360. For example, FIG. 10I shows across-sectional view of an elastic strand 316 in a bond region 360wherein the plurality of individual filaments 364 together define aperimeter 358 that is elongated along the cross direction CD (i.e.,cross-sectionally side-by-side such that other filaments of the elasticstrand are not above or below them when viewed in cross-section (e.g.,FIGS. 10I-L), and wherein all of the plurality of filaments 364 are incontact with the densified first and second materials 354 and 356.

In another example, FIG. 10J shows a cross-sectional view of an elasticstrand 316 in a bond region 360 wherein at least two of the filaments364 are separated from each other by at least one bond between the firstmaterial 354 and second material 356.

It is to be appreciated that different components may be used toconstruct the elastomeric laminates 302 in accordance with the methodsand apparatuses herein. For example, the first and/or second substrates306, 308 may include nonwovens and/or films and may be constructed fromvarious types of materials, such as plastic films; apertured plasticfilms; woven or nonwoven webs of natural materials, such as wood orcotton fibers; synthetic fibers, such as polyolefins, polyamides,polyester, polyethylene, or polypropylene fibers or a combination ofnatural and/or synthetic fibers; or coated woven or nonwoven webs;polymeric films such as thermoplastic films of polyethylene orpolypropylene, and/or a multi-layer or composite materials comprising afilm and a nonwoven material.

It is also to be appreciated that the strands 316 and/or filaments 364herein may define various different cross-sectional shapes. For example,in some configurations, strands 316 or filaments 364 may definecircular, oval, or elliptical cross-sectional shapes or irregularshapes, such as dog bone and hourglass shapes. In addition, the elasticstrands 316 may be configured in various ways and with various decitexvalues. In some configurations, the elastic strands 316 may beconfigured with decitex values ranging from about 10 decitex to about400 decitex, specifically reciting all 1 decitex increments within theabove-recited range and all ranges formed therein or thereby.

As previously mentioned, substrates 306, 308 with elastic strands 316positioned therebetween can be bonded in accordance with methods hereinwithout severing the elastics strands. For example, as shown in FIGS.10G and 10H-10J, ultrasonics, heat, pressure, and combinations thereofmay be applied to the substrates 306, 308 to create bonds 322surrounding the elastic strand 316. The bond 322 is defined by acompressed region comprising first material 354 and second material 356the compressed region having a minimum thickness Tb. In addition, theelastic strand 316 may have a thickness Te in the bond region 360. Insome configurations, substrates 306, 308 that are bonded together tocreate a bond thickness Tb having a certain size relative to the elasticstrand thickness Te, the elastic strand 316 may not be severed duringthe bonding process. In addition, the forces exerted between the elasticstrand 316 and the first and second materials 354, 356 in the bondregion 360 may be prevented from breaking the bond 322. Such arelationship between Te and Tb may be characterized by the decitex ofelastic strands 316 and the bond thickness Tb. For example, substrates306, 308 may be bonded together with an elastic strand having a decitexvalue less than or equal to about 78 positioned therebetween to create abond 322 having a thickness Tb of at least about 100 μm (“microns”)without severing the elastic strand 316. In another example, substrates306, 308 may be bonded together with an elastic strand having a decitexvalue less than or equal to about 250 positioned therebetween to createa bond 322 having a thickness Tb of at least about 200 μm (“microns”)without severing the elastic strand 316. In some configurations, such asshown in FIG. 10J, the bond thickness Tb may be at least 50% larger thanthe minimum cross-sectional thickness Tf of a filament 364. For example,as shown in FIG. 10J, the minimum cross-sectional thickness Tf of afilament 364 having a circular cross-section may be defined the diameterof such a filament.

FIGS. 10K-10M electron microscope photographs (“SEM”) showingcross-sectional views of an elastic strand 316 in a bond region 360surrounded by first and second materials 354, 356. In FIGS. 10K and 10L,the elastic strand 316 is a 78 decitex elastic strand including fivefilaments 364, wherein each filament 364 has a diameter of about 43 μm(“microns”). And the bond 322 defines a thickness Tb of about 80 μm(“microns”). In FIG. 10M, the elastic strand 316 is a 235 decitexelastic strand including fifteen filaments 364, wherein each filament364 has a diameter of about 43 μm (“microns”). And the bond 322 definesa thickness Tb of about 200 μm (“microns”).

As shown in FIGS. 10N, 10O, and 10P, the densified bonds 322 may onlypartially surround some of the elastic strands such that either the topor the bottom of the bond 322 is much thicker than the other. Thiseffect may be due to the process of ultrasonically bonding theelastomeric laminate with a stationary ultrasonic horn, which may drag aportion of the bond 322 while the bond 322 is being formed and in amolten state, creating a tail versus the boundary defined by the otherof the top or bottom of the bond 322 and/or creating a wedge-shaped bond322.

In certain embodiments, the bond 322 may be discrete and may surroundonly a portion of the filaments forming the strand. The discrete bondmay surrounds at least about 10, at least about 20 filaments, at leastabout 30 filaments at least 10 elastic strands. Further, the pluralityof elastic strands may comprise at least 100 elastic strands whereineach of the at least 100 elastic strands comprises at least 3 filamentswherein the plurality of densified bonds overlap at least 50 of theelastic strands making up the plurality of elastic strands and surroundsat least 150 filaments of the at least 100 elastic strands, and whereinsubstantial portions of the at least 100 elastic strands between thedensified bonds are unbonded.

Elastomeric laminates of the present disclosure comprising a pluralityof densified bonds as described above may be adhesive free.Alternatively, certain sections of the elastomeric laminates maycomprise adhesive without densified bonds or certain sections maycomprise the combination of adhesive and densified bonds. For instance,a first plurality of elastics between first and second nonwovens may beoverlapped with a first plurality of densified bond and a secondplurality of elastics between the first and second nonwovens may beoverlapped with adhesive bonds. The first and/or second plurality ofelastics may comprises from about 2 to about 20 elastic strands, mayhave an Average-Strand-Spacing of about 3 mm or greater, and/or may havean Average-Dtex of the second plurality of elastics is about 300 orgreater.

Breakage

Elastomeric laminates of the present disclosure havingDtex-to-Spacing-Ratios, Dtex-to-Nonwoven-Basis-Weight-Ratios, andVoid-Area-to-Elastic-Area-Ratios within the ranges disclosed above willresult in minimal elastic strand breakage between densified portions ofa plurality of bonds (i.e., minimal free ends 327 (see FIG. 10Q) ofstrands or free ends 328 of filaments between densified bonds). Moreparticularly, less than 20%, or less than 15%, or less than 10%, or lessthan 5% of the strands between densified portions of the bonds may bebroken in elastomeric laminates of the present disclosure. Further, lessthan 20%, or less than 15%, or less than 10%, or less than 5% of thefilaments between densified portions of the bonds may be broken inelastomeric laminates of the present disclosure. Alternatively, lowerbreakage may be identified as greater than 70%, greater than 80%, orgreater than 90% of the elastic strands in one of the L and R articlesections extends at least 50% of a lateral width (laid out flat, i.e.,extended) of the respective L and R sections.

It may, however, be desirable to have densified bonds in a section, butnot have elastics in that section—like the section(s) over the chassis.The elastic strands may be purposefully cut or broken in this section,such that free ends of the cut or broken elastic strands overlap thechassis. When an elastomeric laminate comprises apertures, the aperturesmay cut or break the elastic strands.

While elastomeric laminates of the present disclosure have minimalelastic strand breakage between densified portions of a plurality ofbonds, a portion of the filaments making up the strand(s) may be brokenbetween the densified portions of the plurality of bonds (see free end327 of FIG. 10Q and fee ends 328 of FIG. 10R)

It may be desirable that less than 5%, 10%, 15%, or 20% of the elasticstrands of a first plurality of strands are broken between adjacentdensified bonds of the first plurality of bonds that are transverselyspaced less than 20 mm from each other.

As an example, a first elastic strand may be overlapped by at least 3densified bonds joining the first elastic strand to first and/or secondnonwovens, where the first elastic strand is unbonded between the firstbond and a second bond of the at least 3 bonds, and the first elasticstrand is unbonded between the second bond and a third bond of the atleast three bonds.

As another example, a first elastic strand may be overlapped by at least5 densified bonds joining the first elastic strand to first and/orsecond nonwovens, where the first elastic strand is unbonded between thefirst bond and a second bond of the at least 3 bonds, and the firstelastic strand is unbonded between the second bond and a third bond, andfurther, where the first strand is unbonded between the third bond and afourth bond, and the first elastic strand is unbonded between the fourthbond and a fifth bond.

Bi-Laminates of the Present Disclosure

As illustrated in FIGS. 11A-11E, and as described in detail in theUltrasonic Bonds Section above, stranded elastomeric laminates of thepresent disclosure may be bi-laminates and may comprise beamed elastics316. Bi-laminates may be bonded via densified regions, mechanically,thermally, by pressure, or via ultrasonics as described in theUltrasonic Bonds Section above. Bi-laminates may also be bonded togethervia application of adhesives either in a defined pattern, random patternor continuous pattern. Bi-laminates may comprise two nonwoven substrateshaving the same polymer composition, basis weight, formation type(spunbond, carded, spunbond-meltblown-spunbond, etc.). Alternatively,the nonwoven substrates forming the bi-laminate may be formed fromnonwovens having different polymer composition, basis weight, formationtype (spunbond, carded, spunbond-meltblown-spunbond, etc.). Each of thebi-laminates of FIGS. 11A-11E may be used to form the belts of FIGS.16E-G.

Tri-Laminates of the Present Disclosure

Absorbent articles comprising beamed elastic laminates provide a stepchange in textural garment like appearance. The appearance can befurther enhanced via a multi-layer (3 or more substrate layers) laminateconfiguration. These configurations lend themselves to distinct anddifferent bonding approaches and patterns which enables the laminate tohave a first texture on one surface and a second texture on the opposingsurface. The textures may be the same, distinctly different, and/orcomplementary.

When it is desirable to have different texture on the garment-facingsurface 2 or exterior surface 206) versus the wearer-facing surface 4 orinterior surface 205, elastomeric laminates of the present disclosuremay be in the form of a tri-laminate. Referring to FIGS. 12A-13G, forexample, first and second substrate layers 306 and 308 may be bondedwith a different type of bond and/or bonding arrangement versus secondand third substrate layers, 308 and 309. More particularly, as shown inFIGS. 12A-E, first and second substrate layers 306 and 308 may beultrasonically bonded together with continuous (longitudinally orlaterally) or discrete (longitudinally or laterally) bonds 322comprising densified portions 311 (see FIGS. 12C and 12E), while thesecond and third substrates 308 and 309 may be joined via asubstantially continuous adhesive 319 layer (see FIGS. 12C and 12E).FIG. 12F illustrates an alternative embodiment where a pattern ofdensified portions of ultrasonic bonds join the first, second, and thirdsubstrates together in addition to an adhesive layer joining the secondand third substrates together. In another alternative embodiment, thebonds 322 joining the first and second substrates may be an adhesiveinstead of densified portions, such that discrete or patterned adhesivebonds join the first and second substrates and a continuous adhesivelayer joins the second and third substrates. For each of theseembodiments, the elastics 316 may be beamed elastics. The aforementionedconfiguration provides a smooth texture on one surface of the laminateand an intentional, well-defined and deliberate textural pattern on theopposing surface.

In FIGS. 12A-12E, the first and second substrates 306 and 308 may bejoined by a first process step to form a bi-laminate, then the thirdsubstrate 309 may be joined by a second process step to the bi-laminateto form a tri-laminate. Alternatively, the second and third substrates308 and 309 may be first joined to form a bi-laminate by a first processstep, then the first substrate 306 may be joined to the bi-laminate toform a tri-laminate by a second process step.

In the alterative embodiment of FIG. 12F, the second and thirdsubstrates 308 and 309 may be first joined to form a bi-laminate via afirst process step, then the first substrate 306 may be joined to thebi-laminate to form a tri-laminate via a second process step.

Referring to FIGS. 13A-13G, first and second substrate layers 306 and308 may be ultrasonically bonded together with a pattern of continuous(longitudinally or laterally) or discrete (longitudinally or laterally)bonds 322 comprising densified portions 311 (see FIGS. 13C and 13E),while the second and third substrates 308 and 309 may be joined via asecond pattern of continuous (longitudinally or laterally) or discrete(longitudinally or laterally) ultrasonic bonds (see FIGS. 13C and 13E).The bonds 322 joining the first and second substrates 306 and 308together may alternatively form a pattern of continuous (longitudinallyor laterally) or discrete (longitudinally or laterally) adhesive bonds,and the bonds 322 joining the second and third substrates 308 and 309together may also form a pattern of continuous (longitudinally orlaterally) or discrete (longitudinally or laterally) adhesive bonds suchthat one or both bond areas may be adhesive bonds. For each of theseembodiments, the elastic strands 316 may be beamed elastics. In theseembodiments, one surface of the laminate may be smooth while theopposing surface is textured. Alternatively, one surface of the laminatemay have a first texture and the opposing surface of the laminate mayhave a second texture. In a third embodiment, both surfaces of thelaminate may have a relatively smooth texture.

FIG. 13F illustrates an alternative embodiment where densified portionsof ultrasonic bonds join the first, second, and third substratestogether. FIG. 13G illustrates an alternative embodiment where first andsecond substrates 306 and 308 are ultrasonically bonded together andwhere an additional inner second substrate 308′ is ultrasonically bondedto the third substrate 309 and where the second inner substrates 308 and308′ are bonded together with an adhesive layer such that aquad-laminate is formed.

As shown in FIG. 13E, where the bonds joining the second and thirdsubstrates are ultrasonic, the second and third substrates may be joinedby a first process step to form a bi-laminate, then the first substratemay be joined to the bi-laminate by a second process step.

As shown in FIG. 13F adhesive may be applied to one of the firstsubstrate 306 to the second substrate 308 and subsequently, the first,second and third substrates are joined by ultrasonic bonds to form atri-laminate. Alternatively, the first and second substrates 306 and 308may be joined via a first process step, then the bi-laminate may bejoined to the third substrate 309 with ultrasonic bonds that bond allthree substrate layers via a second process step.

As shown in FIG. 12G, the first and second substrates may be joined toform a bi-laminate; separately, the additional second substrate 308′ maybe joined to the third substrate to form a bi-laminate; then the twobi-laminates may be joined together.

While the embodiments of 12A-13G illustrate a plurality of elasticstrands disposed between the second and third nonwovens, it should beunderstood that the plurality of elastic strands may be disposed betweenthe first and second nonwovens or between both the first and secondnonwovens and the second and third nonwovens.

Beyond using a tri-laminate, different textures may also be accomplishedon a garment-facing and wearer-facing surfaces of a two-layer laminateby using first and second substrates having different bondingarrangements of each of the nonwoven layers, or nonwoven layers havingdifferent basis weight arrangements as disclosed in P&G Docket No.15271P, titled Stretch Laminate with Beamed Elastics and Formed NonwovenLayer, and filed on Jun. 19, 2018.

It should also be understood that like tri-laminate structures of theprior art comprising traditional elastic strands due to their random,large, uncontrolled rugosities will not have the performance orappearance of the inventive tri-laminate structures because theinventive tri-laminate structures have beamed elastics, which formhigher frequency lower amplitude controlled rugosities, disposed betweenat least the first and second or the second and third substrate layers.Particularly, the beamed elastics enable the inventive tri-laminates ofthis disclosure to yield the inventive properties disclosed herein (seeTable C below), including inventive Percent-Contact-Areas, unique andinventive texture zones and a unique and inventive balance ofApplication-Force, Sustained-Fit-Load-Force andSustained-Fit-Unload-Force. Each of the tri-laminates of FIGS. 12A-13Gmay be used to form the belts of FIGS. 16E-G.

TABLE C Pres- Rugosity Average Average- Aver- sure- WVTR Rugosity Wave-Filament Strand age- Under- (g/m²/ Frequency length Product CountSpacing Dtex Strand 24 hr) (1/mml (mm) Belt Easy Ups 55.7 8.5 940

.578 5279 0.258 3.47 Merries 55.4

.2 625

.344 5021 0.210 4.77 Mooney 5.3 448

.626 4568 0.210 4.72 Goon 55.6 4.8 350

.323 4616 0.459 2.18 Depends 42.2 6.8 459

.987 4654 0.249 4.02 Always Discreet 42.8 3.5 525

5234 0.524 1.27 Adhesively Bonded 5.0 0. 

85

212 0.616 1.62 Beamed Elastic Adhesively Bonded 5.0 0.5 85 0.351 46840.721 1.39 Beamed Elastic Ultrasonically

.5 0.5 85 5.385 4670 0.367 2.73 Bonded Beamed Elastic Contact ContactContact 2.98% Cantilever Area Area Area Height Distortion Bend Product100 μm 200 μm 300 μm (mm) (%) (mm) Belt Easy Ups 9.2% 19.1% 27.3% 2.657400% 25.96 Merries 7.0% 15.8% 24.5% 3.092 367% 38.06 Mooney 6.5% 16.1%24.7% 2.292 300% 35.27 Goon 5.3% 11.6% 19.0% 2.280 400% 29.15 Depends6.2% 24.9% 24.4% 1.841 na 36.57 Always Discreet 7.3% 16.2% 26.9% 1.629na 25.95 Adhesively Bonded 17.1%  43.0% 67.9% 0.620  0% 24.67 BeamedElastic Adhesively Bonded 17.1% 

3.0% 67.9% 0.624  0% 23.13 Beamed Elastic Ultrasonically 20.6%  32.7%40.8% 1.286 na na Bonded Beamed Elastic

indicates data missing or illegible when filed

Adhesively Bonded Laminates of the Present Disclosure

It should be understood that Dtex-to-Spacing-Ratio is not only importantfor ultrasonically bonded laminates, but is also important foradhesively bonded laminates because the modulus that results from theDtex-to-Spacing-Ratio is very similar between an ultrasonically bondedelastomeric laminate and an adhesively bonded elastomeric laminate. Theadhesively bonded laminate comprising a broad coverage adhesiveapplication will not, however, contract as much as an ultrasonicallybonded laminate with equal dtex, spacing, and strain due to the highfrequency, low amplitude folds that result in a stack up of nonwovenmaterial that prevents the laminate from contracting fully. Theultrasonically bonded laminate will contract more due to the spacedbonds that result in lower frequency, higher amplitude folds which areless resistant to the contraction forces of the elastics in thelaminate. These differences can be leveraged to create specificsilhouettes or shapes of the absorbent article, as well as visuallydistinct textures. For example ultrasonics could be used at the waist orlegs so that the openings contract more than the center (which may beadhesively bonded) of the article to aid in gasketing and fit around thewaist (e.g., Section 1) and legs (e.g., Section 4), and will alsoprovide for more garment-like textures around the waist and legs.

Chemistry and Structure of Elastomeric Strands of the Present Disclosure

Beamed elastics may be formed from Spandex fibers. One type of Spandexfiber is “PolyUrethane Urea” elastomer or the “high hard segment levelPolyUrethane” elastomer, which may be formed into fibers using asolution (solvent) spinning process (as opposed to being processable inthe molten state.) The Urea linkages in PolyUrethane Urea providesstrong mutual chemical interactions crucial for providing “anchoring”that enables good stress relaxation performance at temperatures nearbody temperature on timescales corresponding to diaper wear, includingovernight. This type of anchoring enables betterForce-Relaxation-Over-Time (i.e., little force decay with time when heldin stretched condition at body temperature) over many thermoplasticpolyurethane (PolyUrethane with hard segment melting below 200 deg. C.)or thermoplastic Styrenic block copolymers. Elastomeric laminates of thepresent disclosure comprising elastic strands with this chemistry mayhave a Force-Relaxation-Over-Time from about 5% to about 30%, from about5% to about 25%, from about 10% to about 25%, or from about 15% to about20%.

In contrast, extruded strands and scrims are typically made of Styrenicblock copolymers or thermoplastic elastomers that can be formed in themolten state by conventional extrusion processes. Thermoplasticelastomers include compositions like polyolefin, polyurethane(PolyUrethane with hard segment melting below 200 deg. C.) elastomers,etc. Because these thermoplastic elastomers like Polyurethane(PolyUrethane with hard segment melting below 200 deg. C.) can bemelted/remelted, and extruded it makes them susceptible to higher stressrelaxation in use, which is a major negative. The styrenic blockcopolymers used in extruded strands comprise a comparatively longrubbery midblock situated between comparatively short end blocks. Endblocks sufficiently short to enable good flow conventional extrusionprocesses often have a greater propensity to stress relax and undergoForce-Relaxation-Over-Time see FIG. 8.

The Urea linkage present in Spandex requires it to be made by spinningprocess. Spandex can't be melted/remelted or extruded like Styrenicblock copolymers. Spandex pre-polymer is combined with solvent andadditives, and the solution is spun to make solid spandex fiber.Multiple fibers are then formed together to make one spandex strand. TheSpandex strands may have surface finish to avoid blocking and wound ontospools. The one spandex fiber may have a decitex of about 15, so a 500decitex strand may have nominally 33 fibers wound together to make onestrand. Depending on the decitex we use for beam approach, we may have40 fibers (or filaments), 30 fibers, 20 fibers, 15 fibers, 8 fibers, 5fibers, 3 fibers or even as low as 2 fibers. Spandex fiber can bemono-component or bi-component (as disclosed in WO201045637A2).

Further related to the chemistry of beamed elastics, it may be desirableto coat the beamed elastics with an oil, such as a silicone oil ormineral oil, including about 10%, about 7%, about 5%, about 3%, or about1% silicone oil or mineral oil. Treating the beamed elastics withsilicone oil helps to prevent blocking (cross-linking) when the strandsare wound to a spool or a beam and it also lowers the COF for the strandin textile machinery (for weaving, knitting and warping processes).

Commercially available Spandex strands may also be known as Lycra,Creora, Roica, or Dorlastan. Spandex is often referred as Elastan fiberor Polyurethane fiber.

LYCRA HYFIT strands, a product of Invista, Wichita, Kans., are asuitable for making the strands that make up the plurality of elastics316 that make up the elastomeric laminate 302. Some strands, forexample, the aforementioned LYCRA HYFIT, may comprise a number ofindividual fibers wound together to form the strand. With regard toelastic strands formed of a number of individual fibers it has beendiscovered that the individual fibers can move relative to each otherchanging the cross-sectional shape of the strand as well as becomingunraveled which can lead to poor control of the strands as well as poorbonding/adhering/joining of the elastic strands to one or both of thefirst substrate layer 306 and second substrate layer 308 of theelastomeric laminate 302. In order to minimize the negatives with regardto strands comprising a plurality of fibers it would be advantageous tominimize the number of fibers in a given strand. It would therefore bedesirable to have less than about 40 fibers per strand, less than about30 fibers per strand, less than about 20 fibers per strand, less thanabout 10 fibers per strand, less than about 5 fibers per strand and 1fiber forming the strand. In the case of a single fiber forming thestrand which can deliver comparable performance to the multi-fiberstrands of the prior art it would be desirable for the fiber to have afiber decitex from about 22 to about 300 and a fiber diameter from about50 micrometers to about 185 micrometers.

Component Sections of the Present Disclosure

Components of absorbent articles comprising elastomeric laminates 302may be sectioned to enable measurement and detailed characterization ofthe structure. Waistband 122 (see FIG. 17), waistcap 123 (see FIG. 18),inner leg cuff 150, outer leg cuff 140, and transverse barrier 165 allcomprise 1 section. With regard to the waistband 122, waistcap 123,inner leg cuff 150, outer leg cuff 140 and transverse barrier 165 thesection is defined as the region disposed between and including thedistal most elastic and the proximal most elastic.

Other components such as the chassis 200, topsheet 124 (see FIGS. 16C,16D, and 16E), backsheet 125 (see FIG. 16D), side panel 330 (see FIG.17), ear panel 530 (FIG. 18), and belt panel (e.g., front and backbelts) 430 (see FIGS. 1A-F, 16C and 16F) all comprise multiple sectionsas described herein. With regard to the side panel 330, ear panel 530and belt panel 430 the portion of the component to be sectioned isdefined as the region disposed between and including the distal mostelastic of the elastomeric laminate 302 and the proximal most elastic ofthe elastomeric laminate 302 forming the component—except in cases whereonly a portion of the component is defined to be sectioned, then it isthe region disposed between and including the distal most elastic of thedefined portion of the elastomeric laminate 302 and the proximal mostelastic of the defined portion elastomeric laminate 302 (see alternativeback waist region 38′ in FIG. 16C, which is a portion of the back beltcomponent). The region is defined by a first line extending parallel tothe lateral axis 44 (of the article that the component is part of) andpassing through the distal most point of the distal most elastic and asecond line extending parallel to the lateral axis and passing throughthe proximal most point of the proximal most elastic. For each of theseelements, the region is then divided into 4 equal sections, defined bythree lines disposed parallel to the lateral axis 44 and disposed at25%, 50% and 75% of the distance between the first line and second line.The region comprises a first section, “1” or “Section 1,” which includesthe distal most elastic; a fourth section, “4” or “Section 4,” whichincludes the proximal most elastic; a second section, “2” or “Section2,” disposed adjacent to Section 1; and a third section, “3” or “Section3,” disposed between the Sections 2 and 4.

For example, a front waist region 36 comprising a front belt 430 f maybe sectioned as follows (see FIGS. 23A-C):

“Wherein the front waist region 36 comprises a front component region 50disposed between and including a front distal most elastic strand 417 ofthe front waist region 36 and a proximal most elastic strand 418 of thefront waist region 36;

wherein the front component region 50 is defined by a front distalcomponent region line 419 extending parallel to the lateral axis 44 andpassing through a distal most point 420 of the front distal most elasticstrand 417 and a front proximal component region line 421 extendingparallel to the lateral axis 44 and passing through a proximal mostpoint 422 of the front proximal most elastic strand 418;

wherein the front component region 50 is then divided into 4 equalcomponent sections, defined by first, second, and third componentsection lines 423, 424, and 425, each disposed parallel to the lateralaxis 44 and disposed at 25%, 50% and 75% of the distance between thefront distal component region line 419 and front proximal componentregion line 421;

wherein the front component region 50 comprises a first componentsection, Front Section 1, comprising the front distal most elasticstrand 417, a fourth component section, Front Section 4, comprising thefront proximal most elastic strand 418, a second component section,Front Section 2, adjacent to Front Section 1, and a third componentsection, Front Section 3, disposed between Front Sections 2 and 4.” Forexample, a back waist region 38 comprising a back belt 430 f may besectioned as follows (see FIGS. 23A-C):

“Wherein the back waist region 38 comprises a back component region 51disposed between and including a back distal most elastic strand 517 ofthe back waist region 38 and a proximal most elastic strand 518 of thefront waist region 38;

wherein the back component region 51 is defined by a back distalcomponent region line 519 extending parallel to the lateral axis 44 andpassing through a distal most point 520 of the back distal most elasticstrand 517 and a back proximal component region line 521 extendingparallel to the lateral axis 44 and passing through a proximal mostpoint 522 of the back proximal most elastic strand 518;

wherein the back component region 51 is then divided into 4 equalcomponent sections, defined by first, second, and third componentsection lines 523, 524, and 525, each disposed parallel to the lateralaxis 44 and disposed at 25%, 50% and 75% of the distance between theback distal component region line 519 and back proximal component regionline 521;

wherein the back component region 51 comprises a first componentsection, Back Section 1, comprising the back distal most elastic strand517, a fourth component section, Back Section 4, comprising the backproximal most elastic strand 518, a second component section, BackSection 2, adjacent to Back Section 1, and a third component section,Back Section 3, disposed between Front Sections 2 and 4.”

For embodiments wherein the laterally extending elastic disposed in oneor both waist regions comprises and arcuate portion extendinglongitudinally inward of the proximal most point of the side seam, theproximal most point of the of the proximal most elastic is the point atwhich the elastic intersects a line extending laterally from theproximal most point of a first side seam to the proximal most point ofthe laterally opposing side seam as shown in FIG. 23B

With regard to the chassis 200, topsheet 124 (see FIGS. 16C, 16D, and16E), and backsheet 125 (see FIG. 16D) wherein the elastics 316 of theelastomeric laminate 302 extend in a substantially longitudinalorientation, the portion of the component to be sectioned is defined asthe region disposed between and including the distal most elastic of theelastomeric laminate 302 on a first side of the longitudinal axis 42 andthe distal most elastic of the elastomeric laminate 302 on a second sideof the longitudinal axis 42. The region is defined by a first lineextending parallel to the longitudinal axis 42 and passing through thedistal most point of the distal most elastic on a first side of thelongitudinal axis 42 and a second line extending parallel to thelongitudinal axis 42 and passing through the distal most point of thedistal most elastic on a second side of the longitudinal axis 42. Foreach of these elements, the region is then divided into 4 equalsections, defined by three lines disposed parallel to the longitudinalaxis 42 and disposed at 25%, 50% and 75% of the distance between thefirst line and second line. The region comprises a first section, “1” or“Section 1,” which includes the distal most elastic on the first side ofthe longitudinal axis; a fourth section, “4” or “Section 4,” whichincludes the distal most elastic on the second side of the longitudinalaxis; a second section, “2” or “Section 2,” disposed adjacent to Section1; and a third section, “3” or “Section 3,” disposed between Sections 2and 4.

With regard to the chassis 200, topsheet 124, and backsheet 125 (seeFIG. 16E) wherein the elastics 316 of the elastomeric laminate 302extend in a substantially lateral orientation, the portion of thecomponent to be sectioned is defined as the region disposed between andincluding the distal most elastic of the elastomeric laminate 302 on afirst side of the lateral axis 44 and the distal most elastic of theelastomeric laminate 302 on a second side of the lateral axis 44. Theregion is defined by a first line extending parallel to the lateral axis44 and passing through the distal most point of the distal most elasticon a first side of the lateral axis 44 and a second line extendingparallel to the lateral axis 44 and passing through the distal mostpoint of the distal most elastic on a second side of the lateral axis44. For each of these elements, the region is then divided into 4 equalsections, defined by three lines disposed parallel to the lateral axis44 and disposed at 25%, 50% and 75% of the distance between the firstline and second line. The region comprises a first section, “1” or“Section 1,” which includes the distal most elastic on the first side ofthe lateral axis; a fourth section, “4” or “Section 4,” which includesthe distal most elastic on the second side of the lateral axis; a secondsection, “2” or “Section 2,” disposed adjacent to Section 1; and a thirdsection, “3” or “Section 3,” disposed between Sections 2 and 4.

Absorbent Article Sections of the Present Disclosure

Beyond the absorbent article “component sections” described above, theabsorbent article itself may be divided into “article sections” (seeFIGS. 1A-3F, 16C, 17, 18, and 23A-C). Article sections may be used toenable characterization of the structure of article components thatoverlap the chassis and that extend laterally beyond the chassis.Particularly, a middle section “M” or “Section M” of the article regionis defined by a left article region line 650 extending parallel to thelongitudinal axis 42 and passing through a left laterally distal mostpoint 651 of a left side edge 237 a of the chassis 200 and by a rightarticle region line 652 extending parallel to the longitudinal axis 42and passing through a right laterally distal most point 653 of a rightside edge 237 b (laterally opposed from the left side edge 237 a) of thechassis 200. Everything to one lateral side or the other of the Marticle section are the left article section “L” or “Section L” andlaterally opposed right article section “R” or “Section R.” Sections Land R can be more particularly referred to by referencing whetherSections L, R, or M are in the front, back, or crotch regions 33, 38,and 37, and, as appropriate, which article section it overlaps with. Forinstance, with regard to a belt 430, it may be referred to as having aSection 1 (adjacent a waist opening 190) in Section L of the front waistregion 36. As another example, a portion of the belt 430 may bereferenced that is longitudinally beyond the chassis 200 in the SectionM in the back waist region 38.

Beamed Elastomeric Laminate Examples of the Present Disclosure

Consumer interactions and research has shown that a longstanding unmetconsumer need exists to provide absorbent articles comprising textilegarment-like textures, while maintaining the right balance of force andmodulus for application and removal ease and freedom of movement whileproviding an article with the right balance of sustained fit forces andlow elastic pressure on skin (relative to today's stranded products) inorder to provide a comfortable wearing experience free from skin marks.Elastomeric laminate structures having a Section-Modulus of betweenabout 2 gf/mm and 15 gf/mm or between 3 gf/mm and 12 gf/mm or between 4gf/mm and 10 gf/mm are most desirable for ease of application, ease ofremoval, conforming fit and freedom of movement. CombiningSection-Modulus with Application-Force, Sustained-Fit-Unload-Force andSustained-Fit-Load-Force wherein the Application-Force is less thanabout 1,600 gf, a Sustained-Fit-Load-Force of greater than 30% of theApplication-Force and a Sustained-Fit-Unload-Force of greater than 25%of the Application-Force helps ensure ease of use, and superiorsustained fit and gasketing. Absorbent articles of the presentdisclosure may also comprise a beamed elastic laminate having anApplication-Force of greater than about 1,500 gf, aSustained-Fit-Load-Force of greater than 30% of the Application-Forceand a Sustained-Fit-Unload-Force of greater than 30% of theApplication-Force. Traditional elastic material configurations mayexhibit very high pressures under each elastic element, e.g., elasticstrands, leading to increased skin marking and reduced comfort. Oneapproach to reduce the pressure of the elastic on the skin is toincrease the number of elastics for a given area, e.g., beamed elastics.Increasing the number of elastics within a given area alone may reducethe pressure under each elastic, however, if that is the only change itcan also significantly increase the overall modulus of the elastomericlaminate structure. In order to achieve the right balance of modulus andpressure on the skin it is necessary to reduce the elastic decitexand/or the elastic strain as the spacing between the elastics is reducedthereby increasing the elastic number in order to balance the modulusand pressure on the skin and maintain these parameters within theconsumer preferred range. In order to deliver the desiredSection-Modulus a unique balance of elastic decitex, elastics with adecitex of less than 400, and strand spacing, when the spacing is lessthan 4 mm, is desirable.

The relationship between decitex and spacing to achieve the desiredresults can be characterized as a ratio. The Dtex-to-Spacing-Ratio maybe greater than 60:1 and less than 300:1, greater than 60:1 and lessthan 250:1, greater than 65:1 and less than 215:1, or greater than 60:1and less than 150:1. The ratio may also be greater than 80:1 and lessthan 300:1, greater than 80:1 and less than 250:1, or greater than 65:1and less than 300:1. This breakthrough has been enabled through deliveryof very low decitex elastic at very low strain levels and with verytight elastic spacing that have never before been seen in disposableabsorbent articles. Delivery of such low decitex elastic at low strainand tight spacing is enabled via a new to absorbent article technologycreated from the textile warp beam technology approach. The examplesbelow illustrate such elastomeric structures.

The elastomeric laminate forming part of the absorbent article maycomprise two or more nonwoven layers with elastic material disposedbetween wherein a first portion of the elastic material is joined to thenonwoven layers by one or more of adhesive bonding, pressure bonding,thermal bonding or ultrasonic bonding.

The elastomeric laminate forming part of the absorbent article maycomprise two or more nonwoven layers with elastic material disposedbetween at least two of the nonwoven layers where the elastic materialis joined to one or both of the nonwoven layers by one or more ofadhesive bonding, pressure bonding, thermal bonding or ultrasonicbonding. An elastomeric laminate having a first texture region that maybe formed in part by adhesive bonding, pressure bonding, thermal bondingor ultrasonic bonding disposed in an arcuate pattern/shape.Alternatively the first texture region may be formed in part by adhesivebonding, pressure bonding, thermal bonding or ultrasonic bonding anddisposed in a vertical (longitudinal) linear orientation. Alternatively,a first region may be formed in part by adhesive bonding, pressurebonding, thermal bonding or ultrasonic bonding and disposed in an arrayof closed shapes and in certain embodiments the adhesive bonding,pressure bonding, thermal bonding or ultrasonic bonding may be disposedangularly relative to one or both of the longitudinal or lateralcenterlines. Alternatively, the elastomeric laminate may comprise aninner belt layer and an outer belt layer formed by two separate nonwovenlayers bonded to each other via adhesive bonding, pressure bonding,thermal bonding or ultrasonic bonding with elastics disposed between theinner belt layer and the dual layer outer belt layer. It should beunderstood that one or both of the nonwoven materials forming theelastomeric laminate may comprise a plurality of apertures, disposedrandomly or in a defined pattern, extending through one or both of thenonwoven layers.

Example 1: Pant with Ultrasonically Bonded Belts

Pant Details: Overall Product Length  450 mm Seam to Seam Belt Pitch 355 mm Center Chassis Length  403 mm Laminate Details:Average-Bond-Width (Ultrasonic)  0.5 mm Average-Lateral-Bond-Spacing(Ultrasonic)  4.5 mm Average-Bond-Length (Ultrasonic)  150 mmAverage-Dtex 140 Average-Strand-Spacing  1.5 mm Average-Pre-Strain 180%Outer Belt NW Basis-Weight   20 gsm Outer Belt NW Type Carded Inner BeltNW Basis-Weight   20 gsm Inner Belt NW Type Carded

Example 2: Pant with Ultrasonically Bonded Belts

Pant Details: Overall Product Length  450 mm Seam to Seam Belt Pitch 355 mm Center Chassis Length  403 mm Laminate Details: Average-Bond-Width (Ultrasonic)  0.7 mm Average-Lateral-Bond-Spacing(Ultrasonic)  4.0 mm Average-Bond-Length (Ultrasonic)  150 mmAverage-Dtex  45 Average-Strand-Spacing  0.5 mm Average-Pre-Strain 150%Outer Belt NW Basis-Weight   15 gsm Outer Belt NW Type Spunbond InnerBelt NW Basis-Weight   15 gsm Inner Belt NW Type Spunbond

Example 3: Pant with Adhesively Bonded Belts

Pant Details: Overall Product Length  450 mm Seam to Seam Belt Pitch 355 mm Center Chassis Length  403 mm Laminate Details: AdhesiveApplication Slot Adhesive Basis-Weight   8 gsm Average-Dtex 210Average-Strand-Spacing  2.5 mm Average-Pre-Strain 150% Outer Belt NWBasis-Weight   13 gsm Outer Belt NW Type Spunbond Inner Belt NWBasis-Weight   13 gsm Inner Belt NW Type Spunbond

Example 4: Tri-Laminate Belt Providing Smooth Texture Inside and LoftyTexture Outside

Pant Details: Overall Product Length 450 mm Seam to Seam Belt Pitch 355mm Center Chassis Length 403 mm Laminate Details: Outer Belt NWBasis-Weight  13 gsm Outer Belt NW Type Spunbond Intermediate Belt NWBasis-Weight  8 gsm Intermediate Belt NW Type Spunbond UltrasonicBonding of Outer NW to Intermediate NW Average-Lateral-Bond-Spacing(Ultrasonic)  10 mm Average-Bond-Length (Ultrasonic) Variable(non-uniform) Average-Bond-Width (Ultrasonic)  1 mm Inner Belt NWBasis-Weight  13 gsm Inner Belt NW Type Spunbond Adhesive Bonding ofInner NW to Intermediate NW and Elastic Adhesive Application SlotAdhesive Basis-Weight  8 gsm Average-Dtex  78 Average-Spacing  1 mmAverage-Pre-Strain 150%

Example 5: Belt Having Multiple Texture Zones

Pant Details: Overall Product Length  450 mm Seam to Seam Belt Pitch 355 mm Center Chassis Length  403 mm Laminate Details: Outer Belt NWBasis-Weight   20 gsm Outer Belt NW Type Spunbond Inner Belt NWBasis-Weight   15 gsm Inner Belt NW Type Spunbond 1^(st) Belt Section:Ultrasonic Bonding of Outer Belt NW to Inner Belt NW and ElasticAverage-Lateral-Bond-Spacing (Ultrasonic)   4 mm Average-Bond-Length(Ultrasonic) Variable Average-Bond-Width (Ultrasonic) 0.75 mmAverage-Dtex   78 Average-Strand-Spacing   1 mm Average-Pre-Strain 150%2^(nd) and 3^(rd) Belt Sections: Adhesive Bonding of Outer Belt NW toInner Belt NW and Elastic Adhesive Application Slot AdhesiveBasis-Weight   8 gsm Average-Dtex   78 Average-Strand-Spacing   1 mmAverage-Pre-Strain 150% 4^(th) Belt Section: Ultrasonic Bonding of OuterBelt NW to Inner Belt NW and Elastic Average-Lateral-Bond-Spacing(Ultrasonic)   4 mm Average-Bond-Length (Ultrasonic) VariableAverage-Bond-Width (Ultrasonic) 0.75 mm Average-Dtex  78Average-Strand-Spacing   1 mm Average-Pre-Strain 150%

Example 6 (Hypothetical): Belt Having Multiple Texture Zones

Pant Details: Overall Product Length  450 mm Seam to Seam Belt Pitch 355 mm Center Chassis Length  403 mm Laminate Details: Outer Belt NWBasis-Weight   20 gsm Outer Belt NW Type Spunbond Inner Belt NWBasis-Weight   15 gsm Inner Belt NW Type Spunbond 1^(st) Belt Section(Front and Back Belt): Ultrasonic Bonding of Outer and Inner Belt NWsand Elastic Average-Lateral-Bond-Spacing (Ultrasonic)   4 mmAverage-Bond-Length (Ultrasonic) Variable (non-uniform)Average-Bond-Width (Ultrasonic) 0.75 mm Average-Bond-Disposition(Ultrasonic) Angular (between 5 and 80 degrees relative to longitudinalaxis) Average-Dtex  78 Average-Strand-Spacing 0.75 mm Average-Pre-Strain150% 2^(nd) and 3^(rd) Belt Section in Sections L and R (Front and BackBelt): Ultrasonic Bonding of Outer Belt NW to Inner Belt NW and ElasticAverage-Lateral-Bond-Spacing (Ultrasonic) Variable Average-Bond-Length(Ultrasonic) Variable Average-Bond-Width (Ultrasonic) 0.75 mmAverage-Bond-Disposition (Ultrasonic) Closed Shape s Average-Dtex  78Average-Strand-Spacing 0.75 mm Average-Pre-Strain 150% 2^(nd) and 3^(rd)Belt Section in Section M (Front and Back): Ultrasonic Bonding of OuterBelt NW to Inner Belt NW and Elastic Average-Lateral-Bond-Spacing(Ultrasonic)   3 mm Average-Bond-Length (Ultrasonic)  180 mmAverage-Bond-Width (Ultrasonic)  0.5 mm Average-Bond-Disposition(Ultrasonic) Laterally Extending (Herring bone) Average-Dtex  78Average-Strand-Spacing 0.75 mm Average-Pre-Strain 150% 4^(th) BeltSection Front: Ultrasonic Bonding of Outer Belt NW to Inner Belt NW andElastic Average-Lateral-Bond-Spacing (Ultrasonic)   4 mmAverage-Bond-Length (Ultrasonic)   25 mm Average-Bond-Width (Ultrasonic)0.75 mm Average-Bond-Disposition (Ultrasonic) Longitudinally ExtendingAverage-Dtex  78 Average-Strand-Spacing 0.75 mm Average-Pre-Strain 150%4^(th) Belt Section Back: Adhesive Bonding of Outer Belt NW to InnerBelt NW and Elastic Adhesive Application Continuous Slot AdhesiveBasis-Weight   8 gsm Average-Dtex 640 Average-Strand-Spacing   3 mmAverage-Pre-Strain 180%

Example 7 (Hypothetical): Belt Having Multiple Texture Zones

Pant Details: Overall Product Length  450 mm Seam to Seam Belt Pitch 355 mm Center Chassis Length  403 mm Laminate Details: Outer Belt NWBasis-Weight   22 gsm Outer Belt NW Type Spunbond Inner Belt NWBasis-Weight   13 gsm Inner Belt NW Type Spunbond 1^(st) Belt Section(Front and Back Belt): Ultrasonic Bonding of Outer Belt NW to Inner BeltNW and Elastic Average-Lateral-Bond-Spacing (Ultrasonic)   4 mmAverage-Bond-Length (Ultrasonic) Variable (non-uniform)Average-Bond-Width (Ultrasonic) 0.75 mm Average-Bond-Disposition(Ultrasonic) Angular (between 5 and 80 degrees relative to longitudinalaxis) Average-Dtex  78 Average-Strand-Spacing 0.75 mm Average-Pre-Strain150% 2^(nd) and 3^(rd) Belt Section in Sections L and R (Front and BackBelt): Ultrasonic Bonding of Outer Belt NW to Inner Belt NW and ElasticAverage-Lateral-Bond-Spacing (Ultrasonic) Variable Average-Bond-Length(Ultrasonic) Variable Average-Bond-Width (Ultrasonic) 0.75 mmAverage-Bond-Disposition (Ultrasonic) Arcuate Average-Dtex  78Average-Strand-Spacing 0.75 mm Average-Pre-Strain 150% 2^(nd) and 3^(rd)Belt Section in Section M (Front and Back): Ultrasonic Bonding of OuterBelt NW to Inner Belt NW and Elastic Average-Lateral-Bond-Spacing(Ultrasonic)   3 mm Average-Bond-Length (Ultrasonic)  180 mmAverage-Bond-Width (Ultrasonic)  0.5 mm Average-Bond-Disposition(Ultrasonic) Laterally Extending (Herring bone) Average-Dtex  78Average-Strand-Spacing 0.75 mm Average-Pre-Strain 150% 4^(th) BeltSection Front: Ultrasonic Bonding of Outer Belt NW to Inner Belt NW andElastic Average-Lateral-Bond-Spacing (Ultrasonic)   4 mmAverage-Bond-Length (Ultrasonic)   25 mm Average-Bond-Width (Ultrasonic)0.75 mm Average-Bond-Disposition (Ultrasonic) Longitudinally Ex tendingAverage-Dtex  78 Average-Strand-Spacing 0.75 mm Average-Pre-Strain 150%4^(th) Belt Section Back: Adhesive Bonding of Outer Belt NW to InnerBelt NW and Elastic Adhesive Application Continuous Slot AdhesiveBasis-Weight   8 gsm Average-Dtex 640 Average-Strand-Spacing   3 mmAverage-Pre-Strain 180%

Example 8: Belt Having Multiple Texture Zones (Inner Smooth Texture andOuter Lofty Texture)

Pant Details: Overall Product Length  450 mm Seam to Seam Belt Pitch 355 mm Center Chassis Length  403 mm Laminate Details: Outer Belt NWBasis-Weight   13 gsm Outer Belt NW Type Bico Intermediate Belt NW LayerBasis-Weight   8 gsm Intermediate Belt NW Type Spunbond Inner Belt NWBasis-Weight   13 gsm Inner Belt NW Type Spunbond Ultrasonic Bonding ofOuter Belt NW to Intermediate Belt NW Average-Lateral-Bond-Spacing(Ultrasonic) Variable Average-Bond-Length (Ultrasonic) VariableAverage-Bond-Width (Ultrasonic)  0.7 mm Adhesive Bonding of intermediateBelt NW to Inner Belt NW and Elastic Adhesive Application ContinuousSlot Adhesive Basis-Weight   8 gsm Average-Dtex  78Average-Strand-Spacing 0.75 mm Average-Pre-Strain 120%

Inventive examples 1-8 above will have one or more of the followingproperties:

-   -   a) A Peel-Strength between the first and second nonwovens from        about 1 N/cm to about 10 N/cm or upto and including substrate        failure;    -   b) A Dtex-to-Spacing-Ratio from about 65:1 to about 200:1;    -   c) A Pressure-Under-Strand of from about 0.1 to about 1.2 psi;    -   d) An Application-Force of from about 900 gf to about 1600 gf;    -   e) A Sustained-Fit-Load-Force greater than about 30% of the        Application-Force;    -   f) A Sustained-Fit-Unload-Force greater than about 25% of the        Application-Force;    -   g) A Section-Modulus of from about 3 gf/mm to about 12 gf/mm;    -   h) A Cantilever-Bending of less than about 40 mm;    -   i) A Percent-Contact-Area of one or both surfaces of the        laminate of at least one of: 1) greater than about 10% at 100        um, 2) greater than about 20% at 200 um, and 3) greater than        about 30% at 300 um; and    -   j) A Force-Relaxation-Over-Time of the elastomeric laminate from        about 5% to about 40%.

Absorbent Articles of the Present Disclosure

Products comprising elastomeric laminates of the present disclosure maycomprise absorbent articles 100 of differing structure and/or form thatare generally designed and configured to manage bodily exudates such asurine, menses, and/or feces, such as disposable taped and pants,including baby and adult disposable absorbent articles.

As shown in the figures, the absorbent articles 100 of the presentdisclosure may comprise a chassis 200 comprising a topsheet 124, abacksheet 125, and an absorbent core 128 disposed at least partiallybetween the topsheet 124 and the backsheet 125. The chassis 200 mayfurther comprise an inner leg cuff 150 and an outer leg cuff 140 (thecuffs generally referred to as 52).

One end portion of an absorbent article 100 may be configured as a frontwaist region 36 and the longitudinally opposing end portion may beconfigured as a back waist region 38. An intermediate portion of theabsorbent article 100 extending longitudinally between the front waistregion 36 and the back waist region 38 may be configured as a crotchregion 37. The length of each of the front waist region 36, the backwaist region 38 and the crotch region 37 may be about ⅓ of the length ofthe absorbent article 100, for example (see, for example, FIG. 18).Alternatively, the length of each of the front waist region 36, the backwaist region 38, and the crotch region 37 may have other dimensions(e.g., defined by the longitudinal dimension of the belt immediatelyadjacent the side seam or the longitudinal dimension of the earpanel/side panel immediately adjacent the center chassis—see, forexample, FIGS. 16C and 17; or in the case where an article has acontinuous component such as the pant in FIGS. 16G and 23C, the sideseam 172 (or where the side seam will be or was 172′) may define theboundaries between the front and back waist regions and the crotchregion (see the alternative component sections 1 ‘-4’ and alternativefront and back waist regions 36′ and 38′ and crotch region 37′ in FIG.16C, where the back belt is longitudinally longer than the front belt).

When the side seams are used to define the front and back waist regionsand crotch region, such may be described as follows:

“The front waist region 36 is a region between a) a proximal most frontaxis 410 extending parallel to the lateral axis 44 and passing throughproximal most points of the laterally opposed front side seams 172 or172′; and b) a distal most front axis 411 extending parallel to thelateral axis and passing through distal most points of the laterallyopposed front side seams 172 or 172′; and the back waist region 38 is aregion between a) a proximal most back axis 510 extending parallel tothe lateral axis 44 and passing through proximal most points of thelaterally opposed back side seams 172 or 172′; and b) a distal most backaxis 511 extending parallel to the lateral axis and passing throughdistal most distal points of the laterally opposed back side seams 172or 172′.”

The absorbent article 100 may have a laterally extending front waist endedge 136 in the front waist region 36 and a longitudinally opposing andlaterally extending back waist end edge 138 in the back waist region 38.

The chassis 200 of the absorbent article 100 may comprise a firstlongitudinally extending side edge 237 a and a laterally opposing andsecond longitudinally extending side edge 237 b. Both of the side edges237 may extend longitudinally between the front waist end edge 136 andthe back waist end edge 138. The chassis 200 may form a portion of thelaterally extending front waist end edge 136 in the front waist region36 and a portion of the longitudinally opposing and laterally extendingback waist end edge 138 in the back waist region 38. Furthermore, thechassis 200 may comprise a chassis interior surface 202 (forming atleast a portion of the wearer-facing surface 4), a chassis exteriorsurface 204 (forming at least a portion of the garment-facing surface2), a longitudinal axis 42, and a lateral axis 44. The longitudinal axis42 may extend through a midpoint of the front waist end edge 136 andthrough a midpoint of the back waist end edge 138, while the lateralaxis 44 may extend through a midpoint of the first side edge 237 a andthrough a midpoint of the second side edge 237 b.

Referring to FIG. 16C, often true for belted absorbent articles, thechassis 200 may have a length measured along the longitudinal axis 42that is less than the length of the absorbent article 100. Both of theside edges 237 of the chassis 200 may not extend longitudinally to oneor both of the front waist end edge 136 and the back waist end edge 138.The chassis 200 may not form a portion of one or both of the laterallyextending front waist end edge 136 in the front waist region 36 and thelongitudinally opposing and laterally extending back waist end edge 138in the back waist region 38.

Referring to FIG. 16D, the chassis 200 may comprise elastics 316oriented parallel to the longitudinal axis 42 between the backsheetnonwoven 127 and backsheet film 126. Alternatively, the chassis 200 mayhave elastics 316 oriented parallel to the longitudinal axis 42 betweenthe core wrap 74 and the backsheet 125. Still further, in FIG. 16E thechassis 200 comprises elastics 316 oriented parallel with the lateralaxis 44 between the backsheet film 126 and the backsheet nonwoven 127.FIG. 16D also shows elastics 316 oriented parallel with the longitudinalaxis 42 between a first topsheet layer 124 a and a second topsheet layer124 b. Still further, FIG. 16E shows elastics 316 oriented parallel withthe lateral axis 44 between the topsheet 124 and the core wrap 74.

A portion or the entirety of the absorbent article 100 may be made to belaterally elastically extensible. The extensibility of the absorbentarticle 100 may be desirable in order to allow the absorbent article 100to conform to a body of a wearer during movement by the wearer. Theextensibility may also be desirable, for example, in order to allow thecaregiver to extend the front waist region 36, the back waist region 38,the crotch region 37, and/or the chassis 200 to provide additional bodycoverage for wearers of differing size, i.e., to tailor the fit of theabsorbent article 100 to the individual wearer and to aide in ease ofapplication. Such extension may provide the absorbent article 100 with agenerally hourglass shape, so long as the crotch region 37 is extendedto a relatively lesser degree than the waist regions 36 and/or 38. Thisextension may also impart a tailored appearance to the absorbent article100 during use.

The chassis 200 may be substantially rectangular and may have discreteside panels 330 (FIG. 17), extensible ear panels 530 (FIG. 18) and/ornon-extensible ear panels 540 (FIG. 18) joined to the chassis 200 at oradjacent the chassis side edges 237 in one or both of the front waistregion 36 and back waist region 38. Portions of one or more of thechassis side edges 237, the chassis front end edge 236 and the chassisback end edge 238 may be arcuate or curved either convexly or concavelyas shown in FIG. 19A. The chassis 200 may comprise integral side panels330, integral extensible ear panels, integral belts 430 or integralnon-extensible ear panels 540 formed by one or more of the outer covernonwoven, backsheet film, outer leg cuff material, topsheet or core wrap74 disposed in one or both of the front and back waist regions (FIG.18). Alternatively, the chassis 200 may comprise discrete side panels330 (see FIG. 17), discrete extensible ear panels 530 (see FIG. 18), ordiscrete belts 430 or belt layers (FIGS. 1A-F, 2A-F, 3A-F, 16E, and 16F(inner belt layers 432)). The chassis may be shaped or non-rectangular,in one waist region and substantially rectangular in the opposing waistregion. Alternatively, the chassis may be substantially rectangular inone or both of the waist regions and non-rectangular in the crotchregion.

Absorbent articles of the present disclosure may comprise a plurality oflaterally extending elastic elements wherein the elastic elements arepresent in a first waist region, the crotch region and in the opposingsecond waist region.

Closed-Form Pant Article

Closed-form, pant-style, absorbent articles are generally disclosed inFIGS. 1A-F, 2A-F, 3A-3F, 16A-17, and 23A-C and are designed to bepackaged in closed-form having a waist opening 190 and two leg openings192, and designed to be donned onto the wearer like a pair of durableunderwear. The pant may comprise discrete elastomeric side panels 330(FIG. 17) and/or discrete belts 430 (FIGS. 1A-F, 2A-F, 3A-F, 16A-C, 16E,16F (inner belts), and 23A) in one or both of the front waist region 36and back waist region 38. Alternatively, the side panels 330 and/orbelts 430 may be formed integrally with other elements of the articlesuch as the chassis 200.

When the absorbent article comprises front and back belts 430, the sidesof front and back belts 430 on one side of the article may be joinedpermanently or refastenably to each other and the front and back sidepanels on the opposing side of the article may be joined permanently orrefastenably to each other to create a waist opening 190 and a pair ofleg openings 192 (FIGS. 16A and 16B). The belts 430 provide anelastically extensible feature that provides a more comfortable andcontouring fit by initially conformably fitting the article 100 to thewearer and sustaining this fit throughout the time of wear well pastwhen the pant has been loaded with exudates since the elastomeric sidepanels allow the sides of the pant to expand and contract. Further, theelastomeric belts 430 provide ease of application and develop andmaintain wearing forces and tensions to maintain the article 100 on thewearer and enhance the fit, especially when beamed elastomeric laminatesare used to form the belts 430. The elastomeric side panels enable easeof application allowing the pant to be pulled conformably over the hipsof the wearer and positioned at the waist where the belts 430 conform tothe body and provide tension sufficient to maintain the articlesposition on the wearer. The tension created by the side panels istransmitted from the elastic belts 430 along the waist opening 190 andalong at least a portion of the leg opening 192. Typically, particularlyregarding discrete side panels 330, the chassis 200 is disposed betweenthe side panels 330 and extends to form a portion of the waist edge 136and/or 138 of the pant comprising side panels 330. In other words, aportion of the waist edge 136 and/or 138 in one or both of the frontwaist region 36 and back waist region 38 may be formed in part by theside panels 330 and in part by the chassis 200.

The pant comprising side panels 330 may also comprise a pair oflaterally opposing refastenable seams 174. The refastenable side seam174 may be formed by refastenably joining an interior surface of aportion of the article, e.g. a side panel 330, to an exterior surface ofanother portion of the article 100, e.g., a longitudinally opposing sidepanel 330 or the chassis 200 to form the refastenable side seam 174.

The pant comprising belts 430 may also comprise a first permanent sideseam 172 and a laterally opposing second permanent side seam 172 asillustrated, for example, in FIGS. 16A and 16B. The permanent side seam172 may be formed by joining an interior surface of a portion of thearticle 100, e.g. belt 430, to an exterior surface of another portion ofthe article 100, e.g. a longitudinally opposing belt 430 or the chassis200 to form the permanent side seam 172. Alternatively, the permanentside seam 172 may be formed by joining an interior surface of a portionof the article 100, e.g. a belt 430, to an interior surface of anotherportion of the article 100, e.g. a longitudinally opposing belt 430 toform the permanent side seam 172. Any pants comprising side panels 330configurations described above may comprise a waistband 122 wherein atleast a portion of the waistband 122 (as illustrated in FIG. 17) isdisposed at or immediately adjacent the waist edge 136 and/or 138 andoverlaps a portion of the center chassis 200. The waistband 122 mayextend laterally to overlap portions of the inner leg cuffs 150 and/orportions of the elastomeric side panels 330. The waistband 122 may bedisposed on the interior surface 202 of the chassis 200 or alternativelybetween the topsheet 124 and the backsheet 125.

Particularly regarding belts 430, as illustrated in FIG. 16F, the innerbelt layer 432 and/or the outer belt layer 434 of the first and secondelastomeric belts 430 may be formed by a common belt layer as shown inFIG. 16F. When the first and second elastomeric belts 430 have a commonbelt layer, the common belt layer may extend from a first waist edge ina first waist region to a longitudinally opposing second waist edge in asecond waist region, i.e. front waist edge 136 to back waist edge 138.

Also, particularly regarding belted pants 400, as illustrated in FIG.16C, the belt pant 400 may have a first elastomeric belt 430 disposed ina first waist region having a first longitudinal length and a secondelastomeric belt 430 disposed in a second waist region having a secondlongitudinal length wherein the longitudinal length of the first belt isgreater than the longitudinal length of the second belt along the sideedge of the belt at or adjacent the side seam. This length differencehelps provide buttock coverage in the back of the pant providing a moreunderwear-like appearance. And, while this advantage is disclosed forbelted pants 400, there is also an advantage in having longitudinallylonger side panels 330 in the back waist region 38.

Open-Form Taped Article

Open-form, taped-style, absorbent articles are generally disclosed inFIG. 18. The taped diaper 500, open-form article, may compriseelastomeric ear panels 530 in one or both of the front waist region 36and back waist region 38. The elastomeric ear panels 530 may be unitarystructurally with other elements of the article 100 or as a separateelement joined to another element of the article 100. The elastomericear panels 530 provide an elastically extensible feature that provides amore comfortable and contouring fit by initially conformably fitting thearticle 100 to the wearer and sustaining this fit throughout the time ofwear well past when the taped diaper 500 has been loaded with exudatessince the elastomeric ear panels 530 allows the diaper to expand andcontract to fit the wearer. Further, the elastomeric ear panels 530develop and maintain wearing forces (tensions) and enhance the tensionsdeveloped and maintained by the fastening system 179 (including thefasteners 175 (e.g., hooks) that may be releasably engaged with a matingfasteners 178 (e.g., loops)), to maintain the article 100 on the wearerand enhance the fit. The elastomeric ear panels 530 especially assist inmaintaining the primary line of tension formed by the fastening system179 allowing the diaper to conformably fit over the hips of the wearerwhere there is dynamic motion, and initially pre-tensioning the waistopening 190 and leg opening 192 since the diaperer typically stretchesthe elastomeric ear panels 530 when applying the taped diaper 500 on thewearer so that when the elastomeric ear panels 530 contract, tension istransmitted from the elastomeric ear panels 530 along the waist opening190 and along at least a portion of the leg opening 192. While theopen-form article of the present disclosure may have the elastomeric earpanels 530 disposed in the back waist region 38, alternatively, thetaped diaper 500 may be provided with elastomeric ear panels 530disposed in the front waist region 36 or in both the front waist region36 and the back waist region 38. The open-form article may also haveelastomeric ear panels 530 disposed in a first waist region andelastomeric ear panels 530 or non-elastomeric ear panels 540 disposed ina second waist region.

Alternatively, the open-form, taped-style, absorbent articles maycomprise an elastomeric belt 430 disposed in one of the waist regions.The elastomeric belt 430 may be joined and/or positioned in a particularplace or position and may be unitary structurally with other elements ofthe article 100 or as a separate element joined to another element ofthe article 100. A belted taped diaper the elastomeric belt 430 may bedisposed in the back waist region 38. The elastomeric belt 430 may havefasteners disposed at or adjacent the laterally opposing ends of thebelt. Fasteners 175 may be disposed on the interior surface of the belt430 to engage with a discrete mating fastening component 178 or with theexterior surface 204 of the article (like the backsheet nonwoven 127) tofasten the article on the wearer.

Outer Cover Material

The backsheet 125 may comprise a backsheet film 126 and backsheetnonwoven 127. The backsheet nonwoven 127 may also be referred to as theouter cover material. The outer cover material forms at least a portionof the garment-facing surface of the absorbent article 100 andeffectively “covers” the backsheet film 126 so that the film is notpresent on the garment-facing surface. The outer cover material maycomprise a bond pattern, apertures, and/or three-dimensional features.

Absorbent Core

As used herein, the term “absorbent core” 128 refers to the component ofthe absorbent article 100 having the most absorbent capacity and thatcomprises an absorbent material. Referring to FIGS. 16C and 16D in someinstances, absorbent material (e.g., 26 and 53) may be positioned withina core bag or a core wrap 74. The absorbent material may be profiled ornot profiled, depending on the specific absorbent article. The absorbentcore 128 may comprise, consist essentially of, or consist of, a corewrap, absorbent material, and glue enclosed within the core wrap. Theabsorbent material may comprise superabsorbent polymers, a mixture ofsuperabsorbent polymers and air felt, only air felt, and/or a foam. Insome instances, the absorbent material may comprise at least 80%, atleast 85%, at least 90%, at least 95%, at least 99%, or up to 100%superabsorbent polymers, by weight of the absorbent material. In suchinstances, the absorbent material may free of air felt, or at leastmostly free of air felt—in such cases the AGM 26 may be held in place byan adhesive 54, such as a thermoplastic adhesive. And, for swim diapers,the article may be free of superabsorbent polymers. The absorbent coreperiphery, which may be the periphery of the core wrap, may define anysuitable shape, such as rectangular, “T,” “Y,” “hour-glass,” or“dog-bone” shaped, for example. An absorbent core periphery having agenerally “dog bone” or “hour-glass” shape may taper along its widthtowards the crotch region 37 of the absorbent article 100.

Referring to FIGS. 16C and 16D the absorbent core 128 may have areashaving little or no absorbent material, where a wearer-facing surface ofthe core bag 74 may be joined to a garment-facing surface of the corebag 74. These areas having little or no absorbent material may bereferred to as “channels” 129. These channels can embody any suitableshapes and any suitable number of channels may be provided. In otherinstances, the absorbent core may be embossed to create the impressionof channels. The absorbent core in FIGS. 16C and 16D is merely anexample absorbent core. Many other absorbent cores with or withoutchannels are also within the scope of the present disclosure.

As used herein, a loaded absorbent core is one holding (or capable ofholding) a load of at least 50, 100, or 200 milliliters (mls) fordiapers, pants, and adult incontinence articles. The disposableabsorbent articles of the present disclosure comprising an absorbentcore are designed to fit the wearer with an empty absorbent core (i.e.,one that is not loaded), as well as being capable of fitting the wearfor an appreciable time (2 or more hours) even when the core is loaded.

Acquisition Materials

One or more acquisition materials (e.g., 130) may be present at leastpartially intermediate the topsheet 124 and the absorbent core 128. Theacquisition materials are typically hydrophilic materials that providesignificant wicking of bodily exudates. These materials may dewater thetopsheet 124 and quickly move bodily exudates into the absorbent core128. The acquisition materials 130 may comprise one or more nonwovenmaterials, foams, cellulosic materials, cross-linked cellulosicmaterials, air laid cellulosic nonwoven materials, spunlace materials,or combinations thereof, for example. In some instances, portions of theacquisition materials may extend through portions of the topsheet 124,portions of the topsheet 124 may extend through portions of theacquisition materials, and/or the topsheet 124 may be nested with theacquisition materials. Typically, an acquisition material or layer mayhave a width and length that are smaller than the width and length ofthe topsheet 124. The acquisition material may be a secondary topsheetin the feminine pad context. The acquisition material may have one ormore channels as described in the absorbent core 128 section (includingthe embossed version). The channels in the acquisition material mayalign or not align with channels in the absorbent core 128. In anexample, a first acquisition material may comprise a nonwoven materialand as second acquisition material may comprise a cross-linkedcellulosic material.

Topsheets

The absorbent articles 100 of the present disclosure may comprise atopsheet 124. The topsheet 124 is the part of the absorbent article 100that is in contact with the wearer's skin. The topsheet 124 may bejoined to portions of the backsheet 125, the absorbent core 128, the legcuffs 52, and/or any other layers as is known to those of ordinary skillin the art. The topsheet 124 may be compliant, soft-feeling, andnon-irritating to the wearer's skin. Further, at least a portion of, orall of, the topsheet may be liquid permeable, permitting liquid bodilyexudates to readily penetrate through its thickness. A suitable topsheetmay be manufactured from a wide range of materials, such as porousfoams, reticulated foams, apertured plastic films, woven materials,nonwoven materials, woven or nonwoven materials of natural fibers (e.g.,wood or cotton fibers), synthetic fibers or filaments (e.g., polyesteror polypropylene or bicomponent PE/PP fibers or mixtures thereof), or acombination of natural and synthetic fibers. The topsheet may have oneor more layers. The topsheet may be apertured, may have any suitablethree-dimensional features, and/or may have a plurality of embossments(e.g., a bond pattern). The topsheet may be apertured by overbonding amaterial and then rupturing the overbonds through ring rolling, such asdisclosed in U.S. Pat. No. 5,628,097, to Benson et al., issued on May13, 1997 and disclosed in U.S. Pat. Appl. Publication No. US2016/0136014 to Arora et al. Any portion of the topsheet may be coatedwith a skin care composition, an antibacterial agent, a surfactant,and/or other beneficial agents. The topsheet may be hydrophilic orhydrophobic or may have hydrophilic and/or hydrophobic portions orlayers. If the topsheet is hydrophobic, typically apertures will bepresent so that bodily exudates may pass through the topsheet. Thetopsheet may comprise a bond pattern, apertures, and/orthree-dimensional features.

Backsheets

The absorbent article 100 of the present disclosure may comprise abacksheet 125. The backsheet 125 is generally that portion of theabsorbent article 100 positioned proximate to the garment-facing surfaceof the absorbent core 128. The backsheet 125 may be joined to portionsof the topsheet 124, the backsheet nonwoven 127, the absorbent core 128,and/or any other layers of the absorbent article by any attachmentmethods known to those of skill in the art. The backsheet film 126prevents, or at least inhibits, the bodily exudates absorbed andcontained in the absorbent core 128 from soiling articles such asbedsheets, undergarments, and/or clothing. The backsheet is typicallyliquid impermeable, or at least substantially liquid impermeable. Thebacksheet may, for example, be or comprise a thin plastic film, such asa thermoplastic film having a thickness of about 0.012 mm to about 0.051mm. Other suitable backsheet materials may include breathable materialswhich permit vapors to escape from the absorbent article, while stillpreventing, or at least inhibiting, bodily exudates from passing throughthe backsheet. The backsheet may comprise a bond pattern, apertures,and/or three-dimensional features.

Leg Cuffs

The absorbent articles 100 of the present disclosure may comprise legcuffs 52, which include inner leg cuffs 150 and outer leg cuffs 140. Theinner leg cuffs 150 may be positioned laterally inboard of outer legcuffs 140. Each of the leg cuffs 52 may be formed by a piece of materialwhich is bonded to the absorbent article 100 so it can extend upwardsfrom a wearer-facing surface of the absorbent article 100 and provideimproved containment of body exudates approximately at the junction ofthe torso and legs of the wearer. The inner leg cuffs 150 are delimitedby an edge joined directly or indirectly to (or formed by) the topsheetand/or the backsheet and a free terminal edge, which is intended tocontact and form a seal with the wearer's skin. The inner leg cuffs 150may extend longitudinally at least partially (or fully) between thefront end edge 136 and the back end edge 138 of the absorbent article100 on opposite sides of the chassis and may be at least present in thecrotch region 37. The inner leg cuffs 150 may each comprise one or moreelastics 316 (e.g., elastic strands or strips) near or at the freeterminal edge. These elastics 316 cause the inner leg cuffs 150 to helpform a seal around the legs and torso of a wearer. The outer leg cuffs140 extend at least partially between the front end edge 136 and theback end edge 138. The outer leg cuffs 140 essentially cause portions ofthe absorbent article 100 proximate to the chassis side edges 237 a and237 b to help form a seal around the legs of the wearer. The outer legcuffs 140 may extend at least within the crotch region 37.

Waistbands/Waistcaps

The absorbent articles 100 of the present disclosure may comprise one ormore elastic waistbands 122. The elastic waistbands 122 may bepositioned on the garment-facing surface or the wearer-facing surface,or may be formed therebetween. As an example, a first elastic waistband122 may be present in the front waist region 36 near the front waistedge 136 and a second elastic waistband 122 may be present in the backwaist region 38 near the back waist edge 138. The elastic waistbands 122may aid in sealing the absorbent article 100 around a waist of a wearerand at least inhibiting bodily exudates from escaping the absorbentarticle 100 through the waist opening circumference. In some instances,an elastic waistband may fully surround the waist opening 190 of theabsorbent article 100. A waist cap 123 may be formed by an extension ofthe waistband 122 and may remain unattached to the underlying structurein the central portion of the waist cap 123 to allow bodily exudatesthat flow along the topsheet 124 to be trapped between the topsheet 124and the underside of the waist cap 123. In other words, the waist cap123 may be joined to the underlying structure, e.g., center chassis 200of the absorbent article 100 along the longitudinally distal edge of thewaist cap 123 and/or along the laterally opposing side edges of thewaist cap 123.

Belts

Beyond what was disclosed about belts in the Open-Form Taped Article andClosed-Form Pant Article Sections above, the front and back belts 430 fand 430 b may comprise front and back inner belt layers 432 and frontand back outer belt layers 434 having an elastomeric material (e.g.,strands 316 or a film (which may be apertured)) disposed at leastpartially therebetween. The elastic strands 316 or the film may berelaxed (including being cut) to reduce elastic strain over theabsorbent core 128 or, may alternatively, run continuously across theabsorbent core 128. The elastics strands 316 may have uniform orvariable spacing therebetween in any portion of the belts. The elasticstrands 316 may also be pre-strained the same amount or differentamounts. The front and/or back belts 430 f and 430 b may have one ormore elastic element free zones where the chassis 200 overlaps the belts430 f and 430 b. In other instances, at least some of the elasticstrands 316 may extend continuously across the chassis 200. The innerand/or outer belt layer may comprise a bond pattern, apertures, and/orthree-dimensional features.

The front and back inner belt layers 432 and the front and back outerbelt layers 434 may be joined using adhesives, heat bonds, pressurebonds, ultrasonic, or thermoplastic bonds. Various suitable belt layerconfigurations can be found in U.S. Pat. Appl. Pub. No. 2013/0211363.

Front and back belt end edges 438 f and 438 b may extend longitudinallybeyond the front and back chassis end edges 236 and 238 or they may beco-terminus. The front and back belt side edges 437 may extend laterallybeyond the chassis side edges 237 a and 237 b. The front and back belts430 f and 430 b may be continuous (i.e., having at least one layer thatis continuous (see 434 in FIG. 16F) from belt end edge 438 f to theopposite belt end edge 438 b). Alternatively, the front and back belts430 f and 430 b may be discontinuous from belt end edge 438 f to theopposite belt end edge 438 b (see 432 and 434 in FIG. 16E), such thatthey are discrete.

As disclosed in U.S. Pat. No. 7,901,393, the longitudinal length (alongthe central longitudinal axis 42) of the back belt 430 b may be greaterthan the longitudinal length of the front belt 430 f, and this may beparticularly useful for increased buttocks coverage when the back belt430 b has a greater longitudinal length versus the front belt 430 fadjacent to or immediately adjacent to the side seams 172.Alternatively, the bottom corners of the longer back belt may be trimmedin diagonal lines or curves.

The front and back belts 430 f and 430 b may include slits, holes,and/or perforations providing increased breathability, softness, and agarment-like texture. Underwear-like appearance can be enhanced bysubstantially aligning the waist and leg edges at the side seams 172.

Packaged Absorbent Articles of the Present Disclosure

Assembled absorbent articles, especially including disposable diaper andpants, from the converter are transferred into stacker chain and form astack. The stack of absorbent articles is then compressed in twostations:

-   -   1) Pre-compression (PC): that squeezes majority of air out of        the diapers. The strain reaches about 0.45 but the force is        normally less than 200N.    -   2) Main-compression (MC): the stack is further compressed to a        strain about 0.7. Even though the strain increase is small        compared to PC, the force on the stack peaks in MC. Depending on        the midrange and the product formulation, the MC force on the        stack soars to a few kN and sometimes over 10 kN. This puts the        diapers under a pressure of 100-500 kPa in a quarter second at a        strain rate around 1/s.

The stack is normally over compressed followed by a release beforetransporting through shuttle into the bag. Over compression is neededfor smooth stack transportation in the shuttle as it reduces the normalcontact force (therefore the frictions) between the absorbent articlesof the stack and the shuttle surfaces. These high forces in MC may havepotential negative impacts to product performance, such as glue bleedthrough, AGM poke through, loss of softness and 3D structure (includingtexture), etc.

Beyond this, there is still a long and harsh way ahead, frompalletization to transportation and warehouse handling, until thepackage of absorbent articles finally reaches the shelf or theconsumer's home. During the transportation, the packages of absorbentarticles are exposed to a wide range of dynamic load in all threedirections and dramatic changes in temperatures and humidity which alterthe material properties. After production, absorbent articles may beconfined in bags for several months before usage.

Of course, the absorbent articles of the present disclosure may beplaced into packages. The packages may comprise polymeric films and/orother materials. Graphics and/or indicia relating to properties of theabsorbent articles may be formed on, printed on, positioned on, and/orplaced on outer portions of the packages. Each package may comprise aplurality of absorbent articles. As noted above, the absorbent articlesmay be packed under compression so as to reduce the size of thepackages, while still providing an adequate amount of absorbent articlesper package. By packaging the absorbent articles under compression,caregivers can easily handle and store the packages, while alsoproviding distribution savings to manufacturers owing to the size of thepackages.

It has been found that the stranded elastomeric laminates of the presentdisclosure withstand the negative forces associated making absorbentarticle and with being packaged under high compression for an extendedperiod of time. Of particular importance, the stranded elastomericlaminates of the present disclosure maintain the important propertiesdisclosed herein, including those associated with texture (e.g.,Percent-Contact-Area, Rugosity-Frequency, Rugosity-Wavelength, and2-98%-Height-Value).

Accordingly, packages of the absorbent articles of the presentdisclosure may have an In-Bag Stack-Height of less than about 110 mm,less than about 105 mm, less than about 100 mm, less than about 95 mm,less than about 90 mm, less than about 85 mm, less than about 80 mm,less than about 78 mm, less than about 76 mm, less than about 74 mm,less than about 72 mm, or less than about 70 mm, specifically recitingall 0.1 mm increments within the specified ranges and all ranges formedtherein or thereby, according to the In-Bag Stack Height Test describedherein. Alternatively, packages of the absorbent articles of the presentdisclosure may have an In-Bag-Stack-Height of from about 70 mm to about110 mm, from about 70 mm to about 105 mm, from about 70 mm to about 100mm, from about 75 mm to about 95 mm, from about 80 mm to about 95 mm,from about 80 mm to about 90 mm, from about 85 mm to about 90 mm, orfrom about 88 mm to about 90 mm, specifically reciting all 0.1 mmincrements within the specified ranges and all ranges formed therein orthereby, according to the In-Bag Stack Height Test described herein.

FIG. 20 illustrates an example package 1000 comprising a plurality ofabsorbent articles 1004. The package 1000 defines an interior space 1002in which the plurality of absorbent articles 1004 are situated. Theplurality of absorbent articles 1004 are arranged in one or more stacks1006. As indicated above, each of the absorbent articles 1004 may bedisposable absorbent pant articles, and, may particularly be belted pantarticles.

EXAMPLE CLAIM EMBODIMENTS OF THE PRESENT DISCLOSURE Example Claim Set 1

1. An elastomeric laminate, comprising:

a plurality of elastic strands between of first and second nonwovens;

wherein the plurality of elastic strands has an Average-Strand-Spacingfrom about 0.25 mm to about 4 mm;

wherein the plurality of elastic strands has an Average-Dtex from about10 to about 400;

wherein the plurality of elastic strands has an Average-Pre-Strain fromabout 50% to about 300%;

wherein a plurality of densified bonds joins the first and secondnonwovens together;

wherein the plurality of densified bonds is discrete and spaced fromeach other;

wherein the plurality of densified bonds overlaps and at least partiallysurround portions of the plurality of elastic strands;

wherein a Peel-Strength between the first and second nonwovens is fromabout 1 N/cm to about 15N/cm; and

wherein a Dtex-to-Nonwoven-Basis-Weight-Ratio of a first elastic strandand of at least one of the first and second nonwovens is from about 1.5to about 15.

2. The elastomeric laminate according to claim 1, wherein a firstelastic strand of the first plurality of elastic strands comprises fromabout 2 to about 40 filaments, including first and second filaments,wherein the first and second filaments are disposed cross-sectionallyside-by-side of each other, and wherein at least one discrete bond ofthe plurality of discrete bonds surrounds at least the first and secondfilaments.

3. The elastomeric laminate according to any of the preceding claims,wherein the at least one discrete bond overlaps at least 10 elasticstrands of the first plurality of elastic strands.

4. The elastomeric laminate according to any of the preceding claims,wherein the at least one discrete bond surrounds at least 20 filamentsof the at least 10 elastic strands.

5. The elastomeric laminate according to any of the preceding claims,wherein the plurality of elastic strands has an Average-Strand-Spacingfrom about 0.5 mm to about 2.5 mm.

6. The elastomeric laminate according to any of the preceding claims,wherein at least one of the densified bonds making up the plurality ofdensified bonds has a Void-Area-to-Strand-Area-Ratio of less than 1.

7. The elastomeric laminate according to any of the preceding claims,wherein a Dtex-to-Spacing-Ratio of the plurality of elastic strands isfrom about 65:1 to about 150:1.

8. The elastomeric laminate according to any of the preceding claims,wherein the plurality of elastic strands comprises at least 100 elasticstrands, and wherein each of the at least 100 elastic strands comprisesat least 3 filaments, and wherein the plurality of densified bondsoverlap at least 50 of the elastic strands making up the plurality ofelastic strands and surround at least 150 filaments of the at least 100elastic strands, and wherein substantial portions of the at least 100elastic strands between the densified bonds are unbonded.

9. The elastomeric laminate according to any of the preceding claims,wherein the elastomeric laminate forms at least a portion of at leastone of the group consisting of a belt, a chassis, a side panel, atopsheet, a backsheet, an ear panel, and combinations thereof, whereinthe plurality of elastic strands comprises from about 40 to about 1000elastic strands, wherein each of the elastic strands making up the about40 to about 1000 elastic strands are overlapped by and partiallysurrounded by the plurality of discrete bonds.

10. The elastomeric laminate according to any of the preceding claims,wherein a third nonwoven is joined to the second nonwoven such that atri-laminate is formed, and wherein an exterior surface of the thirdnonwoven and an exterior surface of the first nonwoven have differentPercent-Contact-Area.

11. The elastomeric laminate according to claim 10, wherein the thirdnonwoven is joined to the second nonwoven via adhesive.

12. The elastomeric laminate according to any of the preceding claims,wherein the first nonwoven layer has a basis weight from about 6 gramsper square meter to about 35 grams per square meter, and wherein thesecond nonwoven layer has a basis weight from about 6 grams per squaremeter to about 35 grams per square meter.

13. The elastomeric laminate according to any of the preceding claims,further comprising at least one of:

a) a Percent-Contact-Area of at least one of: a) greater than about 10%at 100 um, b) greater than about 20% at 200 um, and c) greater thanabout 30% at 300 um;

b) a Force-Relaxation from about 5% to about 30%;

c) a Cantilever-Bending of less than about 40 mm;

d) a 2%-98%-Height-Value of <2.2 mm;

e) a Pressure-Under-Strand from about 0.1 to about 1 psi; and

f) a Section-Modulus of from about 2 gf/mm to about 15 gf/mm.

14. The elastomeric laminate according to any of the preceding claims,wherein the plurality of elastic strands has an Average-Strand-Spacingfrom about 0.75 mm to about 2.5 mm.

15. The elastomeric laminate according to any of the preceding claims,wherein the plurality of elastic strands has an Average-Dtex from about40 to about 250.

16. The elastomeric laminate according to any of the preceding claims,wherein the plurality of elastic strands has an Average-Pre-Strain fromabout 100% to about 250%.

Example Claim Set 2

1. An elastomeric laminate, comprising:

a plurality of elastic strands between first and second nonwovens;

wherein the plurality of elastic strands has an Average-Strand-Spacingfrom about 0.25 mm to about 4 mm;

wherein the plurality of elastic strands has an Average-Dtex from about10 to about 400;

wherein the first and second nonwovens are joined together, and whereina third nonwoven is joined to the second nonwoven, such that the secondnonwoven is an intermediate nonwoven;

wherein a Dtex-to-Spacing-Ratio of the plurality of elastic strands isfrom about 65:1 to about 200:1;

wherein the first and second nonwovens are joined together via anadhesive, and wherein the adhesive overlaps and at least partiallysurrounds a portion of the plurality of elastic strands;

wherein the second and third nonwovens are joined together via aplurality of bonds, wherein the plurality of bonds are discrete andlaterally spaced from each other; and

wherein an exterior surface of the third nonwoven and an exteriorsurface of the first nonwoven have different Percent-Contact-Areas.

2. The elastomeric laminate according to claim 1, wherein elasticstrands are not present between the second and third nonwovens.***

3. The elastomeric laminate according to any of the preceding claims,wherein a Dtex-to-Spacing-Ratio of the plurality of elastic strands isfrom about 65:1 to about 150:1.

4. The elastomeric laminate according to any of the preceding claims,wherein the first nonwoven layer has a basis weight from about 6 gramsper square meter to about 35 grams per square meter, and wherein thesecond nonwoven layer has a basis weight from about 6 grams per squaremeter to about 35 grams per square meter.

5. The elastomeric laminate according to any of the preceding claims,further comprising at least one of:

a) a Percent-Contact-Area of at least one of: a) greater than about 10%at 100 um, b) greater than about 20% at 200 um, and c) greater thanabout 30% at 300 um;

b) a Force-Relaxation from about 5% to about 30%;

c) a Cantilever-Bending of less than about 40 mm;

d) a 2%-98%-Height-Value of <2.2 mm;

e) a Pressure-Under-Strand from about 0.1 to about 1 psi; and

f) a Section-Modulus of from about 2 gf/mm to about 15 gf/mm.

6. The elastomeric laminate according to any of the preceding claims,wherein the plurality of elastic strands has an Average-Strand-Spacingfrom about 0.75 mm to about 2.5 mm.

7. The elastomeric laminate according to any of the preceding claims,wherein the plurality of elastic strands has an Average-Dtex from about40 to about 250.

8. The elastomeric laminate according to any of the preceding claims,wherein the plurality of elastic strands has an Average-Pre-Strain fromabout 100% to about 250%.

Example Claim Set 3

1. A disposable absorbent pant article, wherein the disposable absorbentpant article comprises:

a chassis comprising a topsheet, a backsheet and an absorbent coredisposed between the topsheet and the backsheet;

a first plurality of elastic strands disposed in a front waist region;

a second plurality of elastic strands disposed in a back waist region;

wherein the front and back waist regions are joined together atlaterally opposed side seams to form a waist and leg openings;

wherein each of the first and second pluralities of elastic strands havean Average-Strand-Spacing from about 0.25 mm to about 4 mm;

wherein each of the of the first and second pluralities of elasticstrands have Average-Dtex is from about 10 to about 400;

wherein at least a portion of each of the first and second pluralitiesof elastic strands has a Pressure-Under-Strand of from about 0.1 toabout 1 psi;

wherein the pant article has an Application-Force of from about 900 gfto about 1600 gf, and a Sustained-Fit-Load-Force greater than 30% of theApplication-Force; and

wherein the pant article has a Sustained-Fit-Unload-Force greater than25% of the Application-Force.

2. The disposable absorbent pant article according to claim 1, whereinthe front waist region is a region between a) a proximal most front axisextending parallel to the lateral axis and passing through proximal mostpoints of the laterally opposed front side seams; and b) a distal mostfront axis extending parallel to the lateral axis and passing throughdistal most points of the laterally opposed front side seams;

wherein the back waist region is a region between a) a proximal mostback axis extending parallel to the lateral axis and passing throughproximal most points of the laterally opposed back side seams; and b) adistal most back axis extending parallel to the lateral axis and passingthrough distal most points of the laterally opposed back side seams;

wherein the front waist region comprises a front component regiondisposed between and including a front distal most elastic strand of thefront waist region and a proximal most elastic strand of the front waistregion;

wherein the front component region is defined by a front distalcomponent region line extending parallel to the lateral axis and passingthrough a distal most point of the front distal most elastic strand anda front proximal component region line extending parallel to the lateralaxis and passing through a proximal most point of the front proximalmost elastic strand;

wherein the front component region is then divided into 4 equalcomponent sections, defined by first, second, and third componentsection lines, each disposed parallel to the lateral axis and disposedat 25%, 50% and 75% of the distance between the front distal componentregion line and front proximal component region line;

wherein the front component region comprises a first component section,Front Section 1, comprising the front distal most elastic strand, afourth component section, Front Section 4, comprising the front proximalmost elastic strand, a second component section, Front Section 2,adjacent to Front Section 1, and a third component section, FrontSection 3, disposed between Front Sections 2 and 4; and

wherein the absorbent article is divided into three article sections,Section L, Section M, and Section R, wherein the article sections aredefined by a left article section line extending parallel to thelongitudinal axis and passing through a left laterally distal most pointof a left side edge of the chassis and by a right article section lineextending parallel to the longitudinal axis and passing through a rightlaterally distal most point of a right side edge, which is laterallyopposed from the left side edge of the chassis, wherein any portion ofthe article to one lateral side or the other of the Section M definesSection L and the laterally opposed Section R.

3. The disposable absorbent pant article according to claim 2, whereinat least one of Front Sections 2 and 3 within Section L comprise adifferent bonding arrangement than Front Section 1 within Section L, andwherein at least one of Front Sections 2 and 3 within Section L comprisea different bonding arrangement than Front Section 4 within Section L.

4. The disposable absorbent pant article according to any of claims 2-3,wherein Front Sections 3 and 4 within Section L comprise a differentbonding arrangement than Front Sections 3 and 4 within Section M, andwherein Section L comprises at least 3 different bonding arrangementswithin Front Sections 1-4.

5. The disposable absorbent pant article according to any of claims 2-4,wherein a portion of the chassis is contiguous with the Front Section 4within Section M and has the same bonding arrangement and/or the samegraphics pattern as Front Section 4 within M.

6. The disposable absorbent pant article according to any of claims 2-5,wherein Front Section 1 comprises 5% more or 5% fewer elastic strandsthan Front Section 2 within Section L, and wherein Front Section 2comprises 5% more or 5% fewer elastic strands than Front Section 3within Section L; and wherein the ΔE* of Front Sections 1 and 2 withinSection L is greater than about 7 and less than about 60.

7. The disposable absorbent pant article according to any of claims 2-6,wherein at least one discrete bond making up the plurality of discretebonds is disposed in portions at least three of Front Sections 1-4within Section L.

8. The disposable absorbent pant article according to any of claims 2-8,wherein greater than 70% of the elastic strands in at least one ofSections L and R extends at least 50% of a lateral width (when theabsorbent article is laid out flat) of the respective at least one ofSections L and R.

9. The disposable absorbent pant article according to any of thepreceding claims, wherein the disposable absorbent pant article has anApplication-Force of greater than about 1500 gf, aSustained-Fit-Load-Force greater than 30% of the Application-Force, anda Sustained-Fit-Unload-Force greater than 30% of the Application-Force.

10. The disposable absorbent pant article according to any of thepreceding claims, wherein the disposable absorbent pant article has anApplication-Force of from about 900 gf to about 1600 gf, aSustained-Fit-Load-Force from about 400 gf to about 800, and aSustained-Fit-Unload-Force from about 325 to about 600 gf.

11. The disposable absorbent pant article according to any of thepreceding claims, wherein each of the first and second plurality ofelastic strands has an Average-Strand-Spacing from about 0.75 mm toabout 2.5 mm.

12. The disposable absorbent pant article according to any of thepreceding claims, wherein each of the first and second plurality ofelastic strands has an Average-Dtex from about 40 to about 250.

13. The disposable absorbent pant article according to any of thepreceding claims, wherein each of the first and second plurality ofelastic strands has an Average-Pre-Strain from about 100% to about 250%.

Example Claim Set 4

1. A packaged product comprising:

a package having height, width and depth dimensions, an interior spaceand an exterior surface, the package comprising a film;

a plurality of disposable absorbent articles, which are bi-folded andarranged to form a stack of disposable absorbent articles, wherein thestack of disposable absorbent articles is compressed along a compressionaxis and disposed within the interior space of the package such that thecompression axis of the stack of disposable absorbent articles isoriented substantially along the width dimension of the package, each ofthe folded disposable absorbent articles comprising:

-   -   a topsheet;    -   a backsheet;    -   an absorbent core located between the topsheet and the        backsheet;    -   wherein each of the disposable absorbent articles comprises an        elastomeric laminate comprising:    -   a plurality of elastic strands between first and second        nonwovens;    -   wherein the plurality of elastic strands has an        Average-Strand-Spacing from about 0.25 mm to about 4 mm;    -   wherein the plurality of elastic strands has an Average-Dtex        from about 10 to about 400;    -   wherein the plurality of elastic strands has an        Average-Pre-Strain from about 50% to about 300%; and    -   wherein the packaged product exhibits an In-Bag-Stack-Height        from 70 mm to 110 mm wherein the In-Bag-Stack-Height is the        width of the package divided by the number of the disposable        articles per stack and then multiplied by ten.

2. The packaged product according to claim 1, wherein a plurality ofdensified bonds joins the first and second nonwovens together;

wherein the plurality of densified bonds is discrete and spaced fromeach other;

wherein the plurality of densified bonds overlaps and at least partiallysurround a portion of the plurality of elastic strands; and

wherein a Dtex-to-Nonwoven-Basis-Weight-Ratio of a first elastic strandand of at least one of the first and second nonwoven layers is fromabout 1.5 to about 7.

3. The packaged product according to any of the preceding claims,wherein one elastomeric laminate of at least one absorbent article ofthe plurality of absorbent articles has at least one of:

a) a Percent-Contact-Area of at least one of: a) greater than about 13%at 100 um, b) greater than about 27% at 200 um, and c) greater thanabout 36% at 300 um;

b) a Rugosity-Frequency of from about 0.2 mm⁻¹ to about 1 mm⁻¹;

c) a Rugosity-Wavelength of from about 0.5 mm to about 5 mm; and

d) a 2-98%-Height-Value of between 0.3 to about 3.0.

4. The packaged product according to any of the preceding claims,wherein the plurality of elastic strands has an Average-Strand-Spacingfrom about 0.75 mm to about 2.5 mm.

5. The packaged product according to any of the preceding claims,wherein the plurality of elastic strands has an Average-Dtex from about40 to about 250.

6. The packaged product according to any of the preceding claims,wherein the plurality of elastic strands has an Average-Pre-Strain fromabout 100% to about 250%.

7. The packaged product according to any of the preceding claims,wherein the absorbent article is a disposable taped diaper.

8. The packaged product according to any of the preceding claims,wherein the absorbent article is a disposable pant.

9. The elastomeric laminate according to any of the preceding claims,further comprising at least two distinct texture zones, including afirst texture zone comprising a first bonding arrangement, and includinga second texture zone comprising a second bonding arrangement, whereinthe first and second bonding arrangements are different.

10. The elastomeric laminate according to claim 9, wherein the first andsecond texture zones have different Percent-Contact-Areas.

11. The elastomeric laminate according to any of the preceding claims,wherein the elastomeric laminate forms at least a portion of adisposable absorbent pant article, and wherein the disposable absorbentpant article has an Application-Force of from about 900 gf to about 1600gf, and a Sustained-Fit-Load-Force greater than 30% of theApplication-Force, and wherein the pant article has aSustained-Fit-Unload-Force greater than 25% of the Application-Force.

12. The elastomeric laminate according to any of the preceding claims,wherein the packaged product exhibits an In-Bag-Stack-Height from 75 mmto about 95 mm.

Example Claim Set 5

1. A disposable absorbent pant article, comprising:

a chassis comprising a topsheet, a backsheet and an absorbent coredisposed between the topsheet and the backsheet;

a first plurality of elastic strands disposed in a front waist region;

a second plurality of elastic strands disposed in a back waist region;

wherein the front and back waist regions are joined together atlaterally opposed side seams to form a waist and leg openings;

wherein the front waist region is a region between a) a proximal mostfront axis extending parallel to the lateral axis and passing throughproximal most points of the laterally opposed front side seams; and b) adistal most front axis extending parallel to the lateral axis andpassing through distal most points of the laterally opposed front sideseams;

wherein the back waist region is a region between a) a proximal mostback axis extending parallel to the lateral axis and passing throughproximal most points of the laterally opposed back side seams; and b) adistal most back axis extending parallel to the lateral axis and passingthrough distal most points of the laterally opposed back side seams;

wherein the front waist region comprises a front component regiondisposed between and including a front distal most elastic strand of thefront waist region and a proximal most elastic strand of the front waistregion;

wherein the front component region is defined by a front distalcomponent region line extending parallel to the lateral axis and passingthrough a distal most point of the front distal most elastic strand anda front proximal component region line extending parallel to the lateralaxis and passing through a proximal most point of the front proximalmost elastic strand;

wherein the front component region is then divided into 4 equalcomponent sections, defined by first, second, and third componentsection lines, each disposed parallel to the lateral axis and disposedat 25%, 50% and 75% of the distance between the front distal componentregion line and front proximal component region line;

wherein the front component region comprises a first component section,Front Section 1, comprising the front distal most elastic strand, afourth component section, Front Section 4, comprising the front proximalmost elastic strand, a second component section, Front Section 2,adjacent to Front Section 1, and a third component section, FrontSection 3, disposed between Front Sections 2 and 4;

wherein the absorbent article is divided into three article sections,Section L, Section M, and Section R, wherein the article sections aredefined by a left article section line extending parallel to thelongitudinal axis and passing through a left laterally distal most pointof a left side edge of the chassis and by a right article section lineextending parallel to the longitudinal axis and passing through a rightlaterally distal most point of a right side edge, which is laterallyopposed from the left side edge of the chassis, wherein any portion ofthe article to one lateral side or the other of the Section M definesSection L and the laterally opposed Section R;

wherein each of the first and second pluralities of elastics have anAverage-Strand-Spacing from about 0.5 mm to about 3 mm;

wherein each of the of the first and second pluralities of elastics haveAverage-Dtex is from about 40 to about 300;

wherein at least a portion of each of the first and second pluralitiesof elastics has a Pressure-Under-Strand of from about 0.1 to about 1.2psi;

wherein the pant article has an Application-Force of from about 900 gfto about 1600 gf, and a Sustained-Fit-Load-Force greater than 30% of theApplication-Force, and a Sustained-Fit-Unload-Force greater than 25% ofthe Application-Force;

wherein Section L and Section R have a first texture having a firstPercent-Contact-Area and Section M has a second texture having a secondPercent-Contact-Area wherein the first Percent-Contact-Area is greaterthan the second Percent-Contact-Area;

wherein at least a portion of the plurality of elastics disposed inSection L and Section R are joined to the laminate substrates viaadhesive bonding; and

wherein Section M comprises thermal, mechanical, pressure, or ultrasonicbonds or a substrate having non-uniform basis weight or non-uniformthickness to form a portion of the texture on an exterior surface ofSection M.

Example Claim Set 6

1. An elastomeric laminate, comprising:

a plurality of elastic strands between of first and second nonwovens;

wherein the plurality of elastic strands has an Average-Strand-Spacingfrom about 0.25 mm to about 4 mm;

wherein the plurality of elastic strands has an Average-Dtex from about10 to about 400;

wherein the plurality of elastic strands has an Average-Pre-Strain fromabout 50% to about 300%;

wherein a Peel-Strength between the first and second nonwovens is fromabout 1 N/cm to about 15N/cm;

wherein the first and second nonwovens are joined together via anadhesive;

wherein the adhesive overlaps and at least partially surrounds a portionof the plurality of elastic strands;

wherein a Dtex-to-Spacing-Ratio of the plurality of elastic strands isfrom about 65:1 to about 200:1; and

wherein the elastomeric laminate forms at least a portion of adisposable absorbent article.

2. The elastomeric laminate according to claim 1, wherein aDtex-to-Spacing-Ratio of the plurality of elastic strands is from about65:1 to about 150:1.

3. The elastomeric laminate according to any of the preceding claims,further comprising at least one of:

a) a Percent-Contact-Area of at least one of: a) greater than about 10%at 100 um, b) greater than about 20% at 200 um, and c) greater thanabout 30% at 300 um;

b) a Force-Relaxation from about 5% to about 30%;

c) a Cantilever-Bending of less than about 40 mm;

d) a 2%-98%-Height-Value of <2.2 mm;

e) a Pressure-Under-Strand from about 0.1 to about 1 psi; and

f) a Section-Modulus of from about 2 gf/mm to about 15 gf/mm.

4. The elastomeric laminate according to any of the preceding claims,wherein the plurality of elastic strands comprises from about 40 toabout 1000 elastic strands.

5. The elastomeric laminate according to any of the preceding claims,wherein a third nonwoven is joined to the second nonwoven such that atri-laminate is formed, and wherein an exterior surface of the thirdnonwoven and an exterior surface of the first nonwoven have differentPercent-Contact-Areas.

6. The elastomeric laminate according to any of the preceding claims,further comprising at least two distinct texture zones, including afirst texture zone comprising a first bonding arrangement, and includinga second texture zone comprising a second bonding arrangement, whereinthe first and second bonding arrangements are different.

7. The elastomeric laminate according to claim 6, wherein the first andsecond texture zones have different Percent-Contact-Areas.

8. The elastomeric laminate according to claim 5, wherein the thirdnonwoven is joined to the second nonwoven via adhesive.

9. The elastomeric laminate according to claim 5, wherein the thirdnonwoven is joined to the second nonwoven via heat, pressure, andultrasonic bonds.

10. The elastomeric laminate according to claim 5, 8, or 9, wherein thethird nonwoven is joined to the second nonwoven via laterally and/orlongitudinally discrete bonds.

11. The elastomeric laminate according to claim 1, wherein theelastomeric laminate forms at least a portion of a belt, a chassis, aside panel, a topsheet, a backsheet, an ear panel, and combinationsthereof.

12. The elastomeric laminate according to claim 1, wherein theelastomeric laminate has a Pressure-Under-Strand of from about 0.1 toabout 1 psi.

13. The elastomeric laminate according to any of claims 5 and 8-10,wherein elastic strands are not present between the second and thirdnonwovens.

14. The elastomeric laminate according to any of the preceding claims,wherein the elastomeric laminate forms at least a portion of adisposable absorbent pant article comprising a front waist region and aback waist region;

wherein the front and back waist regions are joined together at seams toform a waist and leg opening;

wherein the front waist region is a region between a) a proximal mostfront axis extending parallel to the lateral axis and passing throughproximal most points of the laterally opposed front side seams; and b) adistal most front axis extending parallel to the lateral axis andpassing through distal most points of the laterally opposed front sideseams;

wherein the back waist region is a region between a) a proximal mostback axis extending parallel to the lateral axis and passing throughproximal most points of the laterally opposed back side seams; and b) adistal most back axis extending parallel to the lateral axis and passingthrough distal most points of the laterally opposed back side seams;

wherein the front waist region comprises a front component regiondisposed between and including a front distal most elastic strand of thefront waist region and a proximal most elastic strand of the front waistregion;

wherein the front component region is defined by a front distalcomponent region line extending parallel to the lateral axis and passingthrough a distal most point of the front distal most elastic strand anda front proximal component region line extending parallel to the lateralaxis and passing through a proximal most point of the front proximalmost elastic strand;

wherein the front component region is then divided into 4 equalcomponent sections, defined by first, second, and third componentsection lines, each disposed parallel to the lateral axis and disposedat 25%, 50% and 75% of the distance between the front distal componentregion line and front proximal component region line;

wherein the front component region comprises a first component section,Front Section 1, comprising the front distal most elastic strand, afourth component section, Front Section 4, comprising the front proximalmost elastic strand, a second component section, Front Section 2,adjacent to Front Section 1, and a third component section, FrontSection 3, disposed between Front Sections 2 and 4;

wherein the disposable absorbent pant article is divided into threearticle sections, Section L, Section M, and Section R, wherein thearticle sections are defined by a left article section line extendingparallel to the longitudinal axis and passing through a left laterallydistal most point of a left side edge of the chassis and by a rightarticle section line extending parallel to the longitudinal axis andpassing through a right laterally distal most point of a right sideedge, which is laterally opposed from the left side edge of the chassis,wherein any portion of the article to one lateral side or the other ofthe Section M defines Section L and the laterally opposed Section R.

15. The elastomeric laminate according to claim 14, wherein at least oneof Front Sections 2 and 3 within Section L comprise a different bondingarrangement than Front Section 1 within Section L, and wherein at leastone of Front Sections 2 and 3 within Section L comprise a differentbonding arrangement than Front Section 4 within Section L.

16. The elastomeric laminate according to any of claims 14 and 15,wherein Front Sections 3 and 4 within Section L comprise a differentbonding arrangement than Front Sections 3 and 4 within Section M, andwherein Section L comprises at least 3 different bonding arrangementswithin Front Sections 1-4.

17. The elastomeric laminate according to any of claims 14-16, wherein aportion of the chassis is contiguous with the Front Section 4 withinSection M and has the same bonding arrangement and/or the same graphicspattern as Front Section 4 within M.

18. The elastomeric laminate according to any of claims 14-17, whereinFront Section 1 comprises 5% more or 5% fewer elastic strands than FrontSection 2 within Section L, and wherein Front Section 2 comprises 5%more or 5% fewer elastic strands than Front Section 3 within Section L;and wherein the ΔE* of Front Sections 1 and 2 within Section L isgreater than about 7 and less than about 60.

19. The disposable absorbent pant article according to any of claims14-18, wherein at least one discrete bond is disposed in portions atleast three of Front Sections 1-4 within Section L.

20. The disposable absorbent pant article according to any of claims14-19, wherein greater than 70% of the elastic strands in at least oneof Sections L and R extends at least 50% of a lateral width (when theabsorbent article is laid out flat) of the respective at least one ofSections L and R.

21. The elastomeric laminate of any of the preceding claims, wherein theelastomeric laminate forms at least a portion of a disposable absorbentpant article, and wherein the disposable absorbent pant article has anApplication-Force of from about 900 gf to about 1600 gf, and aSustained-Fit-Load-Force greater than 30% of the Application-Force, andwherein the pant article has a Sustained-Fit-Unload-Force greater than25% of the Application-Force.

22. The disposable absorbent pant article according to claim 21, whereinthe disposable absorbent pant article has an Application-Force ofgreater than about 1500 gf, a Sustained-Fit-Load-Force greater than 30%of the Application-Force, and a Sustained-Fit-Unload-Force greater than30% of the Application-Force.

23. The disposable absorbent pant article according to any of claims21-22, wherein the disposable absorbent pant article has anApplication-Force of from about 900 gf to about 1600 gf, aSustained-Fit-Load-Force from about 400 gf to about 800, and aSustained-Fit-Unload-Force from about 325 to about 600 gf.

24. The elastomeric laminate according to any of the preceding claims,wherein the elastomeric laminate forms at least a portion of eachdisposable absorbent article of a plurality of disposable absorbentarticles;

wherein each disposable absorbent article making up the plurality ofdisposable absorbent articles is bi-folded and arranged to form a stackof disposable absorbent articles;

wherein the stack of disposable absorbent articles is compressed along acompression axis and disposed within an interior space of a package suchthat the compression axis of the stack of disposable absorbent articlesis oriented substantially along a width dimension of the package to forma packaged product; and

wherein each of the folded disposable absorbent articles comprise atopsheet, a backsheet, and an absorbent core located between thetopsheet and the backsheet;

wherein the packaged product exhibits an In-Bag-Stack-Height from 70 mmto 110 mm, and wherein the In-Bag-Stack-Height is the width of thepackage divided by the number of the disposable articles per stack andthen multiplied by ten.

25. The elastomeric laminate according to claim 24, wherein the packagedproduct exhibits an In-Bag-Stack-Height from 75 mm to about 95 mm.

Example Claim Set 7

1. An absorbent article, comprising:

a chassis comprising a topsheet, a backsheet and an absorbent coredisposed between the topsheet and the backsheet;

an elastomeric laminate joined to the chassis, the elastomeric laminatecomprising a plurality of elastics between first and second nonwovenlayers;

wherein the elastomeric laminate forms at least a portion of theabsorbent article, and wherein the elastomeric laminate comprises aplurality of bonds overlapping at least a portion of elastics strandsmaking up the plurality of elastics;

wherein the plurality of bonds consist of densified bonds, and whereineach of the plurality of bonds join the first and second nonwoven layerstogether via a densified portion;

wherein a first elastic strand of the plurality of elastics isoverlapped by a first bond of the plurality of bonds;

wherein the first elastic strand of the plurality of strands comprisesfrom about 2 to about 40 filaments;

wherein the first bond contacts at least a first and a second filamentof the from about 2 to about 40 filaments, and wherein the first andsecond filaments are disposed longitudinally side-by-side of each other;and

wherein a Dtex-to-Nonwoven-Ratio of the first elastic strand and firstand second nonwoven layers is from about 1.5 to about 10.

2. An absorbent article, comprising:

a chassis comprising a topsheet, a backsheet and an absorbent coredisposed between the topsheet and the backsheet;

an elastomeric laminate joined to the chassis, the elastomeric laminatecomprising a plurality of elastics between first and second nonwovenlayers;

wherein the elastomeric laminate forms at least a portion of theabsorbent article; wherein the first elastomeric laminate comprises aplurality of bonds overlapping at least a portion of elastics strandsmaking up the plurality of elastics;

wherein the plurality of bonds consist of densified bonds, and whereineach of the plurality of bonds join the first and second nonwoven layerstogether via a densified portion;

wherein a first elastic strand of the plurality of elastics isoverlapped by a first bond of the plurality of bonds;

wherein the first elastic strand of the plurality of strands comprisesfrom about 2 to about 40 filaments;

wherein the first bond contacts at least a first and a second filamentof the from about 2 to about 40 filaments, and wherein the first andsecond filaments are disposed longitudinally side by side of each other;and

wherein a Dtex-to-Spacing-Ratio of the first plurality of elastics isfrom about 65:1 to about 215:1.

3. An absorbent article, comprising:

a chassis comprising a topsheet, a backsheet and an absorbent coredisposed between the topsheet and the backsheet;

a first elastomeric laminate joined to the chassis, the elastomericlaminate comprising a plurality of elastics between first and secondnonwoven layers;

wherein the elastomeric laminate forms at least a portion of theabsorbent article, wherein the elastomeric laminate comprises anadhesive overlapping at least a portion of elastics strands making upthe first plurality of elastics;

wherein the adhesive joins the first and second nonwoven layerstogether;

wherein a first elastic strand of the first plurality of elastics isoverlapped by the adhesive;

wherein the first elastic strand of the first plurality of strandscomprises from about 2 to about 40 filaments; and

wherein the elastomeric laminate has a Dtex-to-Spacing-Ratio of thefirst plurality of elastics is from about 65:1 to about 215:1.

4. The absorbent article according to any of the preceding claims,wherein the first elastic strand has a Dtex from about 30 to about 400.

5. The absorbent article according to any of the preceding claims,wherein the first nonwoven layer has a basis weight from about 8 gramsper square meter to about 45 grams per square meter; and wherein thesecond nonwoven layer has a basis weight from about 8 grams per squaremeter to about 45 grams per square meter.

6. The absorbent article according to any of the preceding claims,wherein the plurality of elastics comprise from about 40 to about 1000elastic strands.

7. The absorbent article according to any of the preceding claims,wherein the plurality of elastics have an Average-Pre-Strain from about50% to about 400%.

8. The absorbent article according to any of the preceding claims,wherein the plurality of elastics have an Average-Strand-Spacing fromabout 0.25 mm to about 4 mm.

9. The absorbent article according to claim 1, 2, or 4-8, wherein aDtex-to-Spacing-Ratio of the f plurality of elastics is from about 65:1to about 300:1.

10. The absorbent article according to any of the preceding claims,wherein the elastomeric laminate has a Section-Modulus of from about 3gf/mm to about 12 gf/mm.

11. The absorbent article of claim 1, wherein the elastomeric laminatehas a Void-Area-to-Strand-Area-Ratio of less than 1.

12. The absorbent article according to any of claims 1, 2, and 4-11,wherein the elastomeric laminate comprises adhesive.

13. The absorbent article according to any of claims 1, 2, and 4-11,wherein the absorbent article further comprises:

a second plurality of elastics between the first and second substrates;

wherein the second plurality of elastics comprises from about 10 toabout 50 elastic strands;

wherein the second plurality of elastics have an Average-Strand-Spacingof about 3 mm or greater;

wherein an Average-Dtex of the second plurality of elastics is about 300or greater; and

wherein the second plurality are adhered to the first and secondsubstrates via an adhesive.

14. The absorbent article according to any of the preceding claims,wherein the Pressure-Under-Strand of the plurality of elastics is fromabout 0.1 to about 1 psi.

15. The absorbent article of claim 1, wherein the elastomeric laminatehas a Percent-Contact-Area of at least one of: a) greater than about 10%at 100 um, b) greater than about 20% at 200 um, and c) greater thanabout 30% at 300 um.

Example Claim Set 8

1. An absorbent article, comprising:

a lateral axis and a longitudinal axis;

a front waist region and a back waist region;

wherein the front and back waist regions are joined together atlaterally opposed front and back side seams to form a waist and legopenings;

a chassis comprising a topsheet, a backsheet and an absorbent coredisposed between the topsheet and the backsheet;

an elastomeric laminate comprising a plurality of elastics between firstand second nonwoven layers, wherein the plurality of elastics comprisesa first elastic strand and a second elastic strand;

the elastomeric laminate comprises a plurality of bonds overlapping atleast a portion of elastic strands making up the plurality of elastics,and wherein each of the plurality of bonds join the first and secondnonwoven layers together;

wherein the plurality of bonds comprise densified bonds comprising adensified portion, and wherein at least a portion of the densified bondsoverlaps and at least partially surrounds the first and second elasticstrands;

wherein the elastomeric laminate forms an article component;

wherein the front waist region is a region between a) a proximal mostfront axis extending parallel to the lateral axis and passing throughproximal most points of the laterally opposed front side seams; and b) adistal most front axis extending parallel to the lateral axis andpassing through distal most points of the laterally opposed front sideseams;

wherein the back waist region is a region between a) a proximal mostback axis extending parallel to the lateral axis and passing throughproximal most points of the laterally opposed back side seams; and b) adistal most back axis extending parallel to the lateral axis and passingthrough distal most points of the laterally opposed back side seams;

wherein the front waist region comprises a front component regiondisposed between and including a front distal most elastic strand of thefront waist region and a proximal most elastic strand of the front waistregion;

wherein the front component region is defined by a front distalcomponent region line extending parallel to the lateral axis and passingthrough a distal most point of the front distal most elastic strand anda front proximal component region line extending parallel to the lateralaxis and passing through a proximal most point of the front proximalmost elastic strand;

wherein the front component region is then divided into 4 equalcomponent sections, defined by first, second, and third componentsection lines, each disposed parallel to the lateral axis and disposedat 25%, 50% and 75% of the distance between the front distal componentregion line and front proximal component region line;

wherein the front component region comprises a first component section,Front Section 1, comprising the front distal most elastic strand, afourth component section, Front Section 4, comprising the front proximalmost elastic strand, a second component section, Front Section 2,adjacent to Front Section 1, and a third component section, FrontSection 3, disposed between Front Sections 2 and 4; and

wherein the absorbent article is divided into three article sections,Section L, Section M, and Section R, wherein the article sections aredefined by a left article section line extending parallel to thelongitudinal axis and passing through a left laterally distal most pointof a left side edge of the chassis and by a right article section lineextending parallel to the longitudinal axis and passing through a rightlaterally distal most point of a right side edge, which is laterallyopposed from the left side edge of the chassis, wherein any portion ofthe article to one lateral side or the other of the Section M definesSection L and the laterally opposed Section R;

wherein Front Section 1 comprises longitudinally extending bonds or bondregions transversely spaced from each other at anAverage-Lateral-Bond-Spacing; and

wherein at least one of Front Sections 2 and 3 comprise longitudinallyextending bonds or bond regions transversely spaced from each other at adifferent Average-Lateral-Bond-Spacing than Front Section 1.

2. An absorbent article, comprising:

a lateral axis and a longitudinal axis;

a front waist region and a back waist region;

wherein the front and back waist regions are joined together atlaterally opposed front and back side seams to form a waist and legopenings;

a chassis comprising a topsheet, a backsheet and an absorbent coredisposed between the topsheet and the backsheet;

an elastomeric laminate comprising a plurality of elastics between firstand second nonwoven layers, wherein the plurality of elastics comprisesa first elastic strand and a second elastic strand;

the elastomeric laminate comprises a plurality of bonds overlapping atleast a portion of elastic strands making up the plurality of elastics,and wherein each of the plurality of bonds join the first and secondnonwoven layers together;

wherein the plurality of bonds comprise densified bonds comprising adensified portion, and wherein at least a portion of the densified bondsoverlaps and at least partially surrounds the first and second elasticstrands;

wherein the elastomeric laminate forms an article component;

wherein the front waist region is a region between a) a proximal mostfront axis extending parallel to the lateral axis and passing throughproximal most points of the laterally opposed front side seams; and b) adistal most front axis extending parallel to the lateral axis andpassing through distal most points of the laterally opposed front sideseams;

wherein the back waist region is a region between a) a proximal mostback axis extending parallel to the lateral axis and passing throughproximal most points of the laterally opposed back side seams; and b) adistal most back axis extending parallel to the lateral axis and passingthrough distal most points of the laterally opposed back side seams;

wherein the front waist region comprises a front component regiondisposed between and including a front distal most elastic strand of thefront waist region and a proximal most elastic strand of the front waistregion;

wherein the front component region is defined by a front distalcomponent region line extending parallel to the lateral axis and passingthrough a distal most point of the front distal most elastic strand anda front proximal component region line extending parallel to the lateralaxis and passing through a proximal most point of the front proximalmost elastic strand;

wherein the front component region is then divided into 4 equalcomponent sections, defined by first, second, and third componentsection lines, each disposed parallel to the lateral axis and disposedat 25%, 50% and 75% of the distance between the front distal componentregion line and front proximal component region line;

wherein the front component region comprises a first component section,Front Section 1, comprising the front distal most elastic strand, afourth component section, Front Section 4, comprising the front proximalmost elastic strand, a second component section, Front Section 2,adjacent to Front Section 1, and a third component section, FrontSection 3, disposed between Front Sections 2 and 4; and wherein theabsorbent article is divided into three article sections, Section L,Section M, and

Section R, wherein the article sections are defined by a left articlesection line extending parallel to the longitudinal axis and passingthrough a left laterally distal most point of a left side edge of thechassis and by a right article section line extending parallel to thelongitudinal axis and passing through a right laterally distal mostpoint of a right side edge, which is laterally opposed from the leftside edge of the chassis, wherein any portion of the article to onelateral side or the other of the Section M defines Section L and thelaterally opposed Section R;

wherein Front Section 1 comprises a first bonding arrangement in atleast one of Sections L and R;

wherein Front Section 2 comprises a second bonding arrangement in atleast one of Sections L and R;

wherein Front Section 3 comprises a third bonding arrangement in atleast one of Sections L and R;

wherein Front Section 4 comprises a fourth bonding arrangement in atleast one of Sections L and R;

wherein the first bonding arrangement is different than the fourthbonding arrangement; and

wherein the first and fourth bonding arrangements are different than atleast one of the second and third bonding arrangements.

3. An absorbent article, comprising:

a lateral axis and a longitudinal axis;

a front waist region and a back waist region;

a chassis comprising a topsheet, a backsheet and an absorbent coredisposed between the topsheet and the backsheet;

an elastomeric laminate comprising a plurality of elastics between firstand second nonwoven layers, wherein the plurality of elastics comprisesa first elastic strand and a second elastic strand;

the elastomeric laminate comprises a plurality of bonds overlapping atleast a portion of elastic strands making up the plurality of elastics,and wherein each of the plurality of bonds join the first and secondnonwoven layers together;

wherein the plurality of bonds comprise densified bonds comprising adensified portion, and wherein at least a portion of the densified bondsoverlaps and at least partially surrounds the first and second elasticstrands;

wherein the elastomeric laminate forms an article component;

wherein the front waist region is a front ⅓ of the absorbent article;

wherein the back waist region is a back ⅓ of the absorbent article;

wherein the front waist region comprises a front component regiondisposed between and including a front distal most elastic strand of thefront waist region and a proximal most elastic strand of the front waistregion;

wherein the front component region is defined by a front distalcomponent region line extending parallel to the lateral axis and passingthrough a distal most point of the front distal most elastic strand anda front proximal component region line extending parallel to the lateralaxis and passing through a proximal most point of the front proximalmost elastic strand;

wherein the front component region is then divided into 4 equalcomponent sections, defined by first, second, and third componentsection lines, each disposed parallel to the lateral axis and disposedat 25%, 50% and 75% of the distance between the front distal componentregion line and front proximal component region line;

wherein the front component region comprises a first component section,Front Section 1, comprising the front distal most elastic strand, afourth component section, Front Section 4, comprising the front proximalmost elastic strand, a second component section, Front Section 2,adjacent to Front Section 1, and a third component section, FrontSection 3, disposed between Front Sections 2 and 4; and

wherein the absorbent article is divided into three article sections,Section L, Section M, and Section R, wherein the article sections aredefined by a left article section line extending parallel to thelongitudinal axis and passing through a left laterally distal most pointof a left side edge of the chassis and by a right article section lineextending parallel to the longitudinal axis and passing through a rightlaterally distal most point of a right side edge, which is laterallyopposed from the left side edge of the chassis, wherein any portion ofthe article to one lateral side or the other of the Section M definesSection L and the laterally opposed Section R;

wherein a Percent-Contact-Area in Front Section 1 within Section M is atleast 15% different than a Percent-Contact-Area in Front Section 1within Section L.

4. The absorbent article according to any of the preceding claims,wherein at least a portion of the plurality of the bonds or bond regionsin Front Section 1 extend into Section 2.

5. The absorbent article according to any of the preceding claims,wherein at least a plurality of the bonds or bond regions in Section 2extend into Section 3.

6. The absorbent article according to any of the preceding claims,wherein at least one bond making up the plurality of bonds extendslongitudinally.

7. The absorbent article according to claim 6, wherein the at least onebond extending longitudinally is angled relative to the longitudinalaxis.

8. The absorbent article according to any of claims 6 and 7, the atleast one bond extending longitudinally is disposed in Front Section 1.

9. The absorbent article according to any of the preceding claims,wherein a bond or a bond region making up the plurality of bondscooperate to form arcuate bonds or arcuate bond regions.

10. The absorbent article according to any of the preceding claims,comprising at least one of the following:

a) the Average-Lateral-Bond-Spacing of Front Section 1 is from about 2mm to about 15 mm;

b) the Average-Lateral-Bond-Spacing of Front Section 2 is from about 2mm to about 15 mm;

c) the Average-Lateral-Bond-Spacing of Front Section 3 is from about 2mm to about 15 mm; and

d) the Average-Lateral-Bond-Spacing of Front Section 4 is from about 2mm to about 15 mm.

11. The absorbent article according to claims any of the precedingclaims, comprising at least one of the following:

a) the longitudinally extending bonds or bond regions of Front Section 1have an Average-Bond-Width from about 0.25 mm to about 5 mm;

b) the longitudinally extending bonds or bond regions of Front Section 2have an Average-Bond-Width from about 0.25 mm to about 5 mm;

c) the longitudinally extending bonds or bond regions of Front Section 3have an Average-Bond-Width from about 0.25 mm to about 5 mm; and

d) the longitudinally extending bonds or bond regions of Front Section 4have an Average-Bond-Width from about 0.25 mm to about 5 mm.

12. The absorbent article according to any of the preceding claims,wherein at least one of Front Sections 1, 2, 3, or 4 have anEmtec-TS7-Value of less than about 12 and an Emtec-TS750-Value of lessthan 60.

13. The absorbent article according to any of the preceding claims,wherein at least two of Sections 1, 2, 3, or 4 have an Air-Permeabilityof at least one of: a) greater than about 40 cubic meters/squaremeter/minute Air-Permeability at 0 gf/mm (no extension); b) greater thanabout 60 cubic meters/square meter/minute Air-Permeability at 3 gf/mm(slight extension); and c) greater than about 80 cubic meters/squaremeter/minute Air-Permeability at 7 gf/mm (moderate extension).

14. The absorbent article according to any of the preceding claims,wherein at least two of Sections 1, 2, 3, or 4 have aPercent-Contact-Area of at least one of: a) greater than about 13% at100 um, b) greater than about 27% at 200 um, and c) greater than about36% at 300 um.

Methods of the Present Disclosure General Sample Preparation

The General Sample Preparation is intended to be used for methods thatdo not have specific sample preparation instructions within the methoditself.

When collecting a specimen for testing, the specimen must contain aplurality of elastic strands and/or an elastic material, elastic scrim,elastic ribbons, elastic strips, etc. In situations where the elasticmaterial and/or elastic strands is not fully secured within the sample,the test specimen must be obtained in a way that elastic material and/orelastic strands within the test region of the specimen are as they wereintended and not altered as a result of collection of the specimen. Ifthe elastic material or any elastic strands release, creep or becomeseparated within or from the laminate, the specimen is discarded and anew specimen prepared. And, depending on the method, the portion or areaof the stranded elastomeric laminate that should be tested will includea plurality of elastic strands between an area of first and secondnonwovens, excluding any cut window (such as an elastic-free zone orarea overlapping with the core or center chassis, and excluding anyseams joining multiple article components together. Certain methods,however, may require testing of the absorbent article component,including cut windows and seams (e.g., Hip Hoop Test).

For pants, remove the side panels where they are attached to the chassisand separate the side panels at the side seams. Identify the elasticmaterial that transverses the entire width of the panel. Identify thelongitudinally distal most edge of the elastic material or elasticstrand (closest to the waist edge) and the longitudinally proximal mostedge of the elastic material or elastic strand (closest to the leg edge)determine the midpoint between the distal most elastic strand or elasticmaterial edge and the proximal most elastic strand or elastic materialedge. Cut a 40 mm wide strip laterally across the entire panel centeredat the midpoint. Repeat for each front and rear side panel that containselastic material and/or elastic strands.

For taped, remove ear panels where they are attached to the chassis.Identify the elastic material that transverses the entire width of thepanel. Identify the distal most elastic material edge or elastic strand(closest to the waist edge) and the proximal most elastic material edgeor elastic strand (closest to the leg edge) determine the midpointbetween the distal most elastic strand or elastic material edge and theproximal most elastic strand or elastic material edge. Cut a 40 mm widestrip laterally across the entire ear panel centered at the midpoint.Repeat for each front and rear ear panel that contains elastic materialand/or elastic strands.

For a belted article, mark the product on the front and back byextending a line from along the side of the core to the waist edge.Remove the belt from the article, using an appropriate means (e.g.freeze spray), taking care not to delaminate the belt or release theelastics. Separate the front belt from the back belt along any seams.Identify the distal most elastic material edge or elastic strand(closest to the waist edge) and the proximal most elastic material edgeor strand (closest to the leg edge) determine the midpoint between thedistal most elastic strand or elastic material edge and the proximalmost elastic strand or elastic material edge. Cut a 40 mm wide stripparallel to the waist edge if linear or to the elastic strands if linearand centered at the midpoint, across the entire belt portion. If thestrip has a region that does not contain elastic strands or elasticmaterial (e.g., a portion that overlapped the core, etc.) cut along theends of the elastic strands/elastic material, to remove the non-elasticregion and treat as two specimens.

For waistbands, they are tested as a single piece of material. Removethe belt from the article, using an appropriate means (e.g. freezespray), taking care not to delaminate the belt or release the elastics.

For the leg cuffs, each of the leg cuffs are tested as a single piece ofmaterial. The inner leg cuff sample is considered to be the portion ofthe inner leg cuff that extends from the proximal most edge of the innerleg cuff to and including the distal most elastic of the inner leg cuffand extending longitudinally to the front and back waist edges of thechassis. The outer leg cuff sample is considered to be the portion ofthe outer leg cuff that extends from the distal most edge of the outerleg cuff to and including the proximal most elastic of the outer legcuff and extending longitudinally to the front and back waist edges ofthe chassis.

For all specimen strips calculate a Span Corrected Width (SCW) iscalculated as:

${{Span}\mspace{14mu}{Corrected}\mspace{14mu}{Width}} = {d\left( \frac{n}{n - 1} \right)}$

where d is the distance (mm) between the two distal strands, and n isthe number of strands, when n>1. Clamp the strip at each end and measurethe length between the clamps to the nearest 1 mm. Apply a weight equalto 3 g/mm SCW. After 10 seconds measure the final length to the nearest1 mm. Calculate the elongation as (Final Length−Initial Length)/Initiallength.

Cantilever-Bending

The Bending Length and Flexural Rigidity at the waist is measured as theCantilever-Bending value as determined using ASTM Method D1388, Option ACantilever Test with the modifications described below. The testapparatus described in the D1388 is used without modification. Articlesare conditioned at 23° C.±2 C.° and 50%±2% relative humidity for 2 hrs.prior to analysis and then tested under the same environmentalconditions.

The method is applied to a dry nonwoven laminate specimen dissected froman absorbent article rather than a fabric. For a belted article cut thebelt at the side seams and remove the belt from the rest of the articleusing for example a cryogenic spay (e.g. Quick-Freeze, Miller-StephensonCompany, Danbury, Conn.). For pants, remove the side panel from thechassis and separate/cut along the side seam. The specimen is cut as a25.4 mm strip parallel to the longitudinal axis of the product, startingat the waist and extending toward the crotch of the product. The lengthof the specimen can be less than the 200 mm cited in D1388, but must beat least 10 mm longer than the overhang length determined duringtesting. If the waist of the specimen is folded over, leave the foldintact for testing.

The specimen is placed on the platform with the garment facing side downand the end proximal to the waist as the leading edge. The bend isperformed as described in D1388. Record the overhang length (OL) to thenearest 1 mm. Calculate the Bending Length (BL) as the Overhang Lengthdivided by 2 and report to the nearest 1 mm. Take the specimen andmeasure the overhang length from the leading edge and cut across thestrip. Measure and record the mass of the overhang piece and record tothe nearest 0.001 g. From the mass and the dimensions of the overhangpiece calculate the basis weight (BW) and record to the nearest 0.01g/m².

Average-Strand-Spacing Using a ruler calibrated against a certified NISTruler and accurate to 0.5 mm, measure the distance between the twodistal strands within a section to the nearest 0.5 mm, and then divideby the number of strands in that section−1Average-Strand-Spacing=d/(n−1) where n>1report to the nearest 0.1 mm.

Pressure-Under-Strand (Also Referred to asAverage-Pressure-Under-Strand)

Defined as the average pressure imparted by each individual elasticstrand of a section under specific conditions. These conditions aredefined as (refer to FIG. 21):

-   -   The section is pulled to a Stress of 7 gf/mm (within a consumer        preferred range of stresses as determined experimentally)    -   The section is pulled over a cylinder whose circumference is        defined as a Representative-Circumference    -   Where:

Pressure-Under-Strand(psi)=1.422*Strand-Force/(2*Representative-Radius*Average-Strand-Diameter)

Representative-Radius (mm)=Representative-Circumference/(2*pi)

Representative-Circumference (mm)=460 mm

Stress (gf/mm)=(Summation of Strand-Forces within asection)/(Section-Width)

Section-Width (mm)=(Number of Elastics in thesection)*Average-Strand-Spacing (mm)

Strand-Force (gf)=Strand-Strain (%)*0.046875*Average-Dtex

Strand-Strain (%)=strain in each elastic strand within a section

Average-Strand-Diameter (mm)=2*sqrt (Strand-Cross-Sectional-Area/pi)

Strand-Cross-Sectional-Area (mm²)=Average-Dtex/Strand-Density/10,000

Strand-Density (g/cc)=1.15 g/cc (industry standard for PolyUrethaneUreabased spandex elastics)

Dtex (g/10,000m)=Standard textile unit of measure. Dtex is weight ingrams for 10,000m of the material

Average-Pre-Strain=Amount of stretch in elastic strands in a sectionprior to combining with substrate layer(s).

Maximum-Strain=Average-Pre-Strain. This is the maximum amount of straineach section can be pulled to. It cannot exceed the Average-Pre-Strain.

Maximum-Section-Force=Summation of each strand in the section pulled tothe Maximum-Strain.

Section-Modulus

Defined as the modulus of a given section. Section-Modulus (alsoreferred to as modulus) is the linear slope of the stress vs strain dataof the section between 3 gf/mm and 7 gf/mm (refer to FIG. 7).Section-Modulus is calculated as:

Section-Modulus=[7 gf/mm−3 gf/mm]/[(section strain at 7 gf/mm)−(sectionstrain at 3 gf/mm)]

Where:

section strain at 7 gf/mm=7 gf/mm*(Average-Strand-Spacing)/DTEX-FACTOR

section strain at 3 gf/mm=3 gf/mm*(Average-Strand-Spacing)/DTEX-FACTOR

Average-Strand-Spacing (mm)=d/(n−1)

-   -   d is the distance (mm) between the two distal strands of the        section    -   n is the number of strands, when n>1

DTEX-FACTOR=37.5*Average-Dtex/800 (dtex as measured, specified)

-   -   Section-Modulus is reported in units of (gf/mm)

Average-Decitex (Average-Dtex)

The Average-Decitex Method is used to calculate the Average-Dtex on alength-weighted basis for elastic fibers present in an entire article,or in a specimen of interest extracted from an article. The decitexvalue is the mass in grams of a fiber present in 10,000 meters of thatmaterial in the relaxed state. The decitex value of elastic fibers orelastomeric laminates containing elastic fibers is often reported bymanufacturers as part of a specification for an elastic fiber or anelastomeric laminate including elastic fibers. The Average-Dtex is to becalculated from these specifications if available. Alternatively, ifthese specified values are not known, the decitex value of an individualelastic fiber is measured by determining the cross-sectional area of afiber in a relaxed state via a suitable microscopy technique such asscanning electron microscopy (SEM), determining the composition of thefiber via Fourier Transform Infrared (FT-IR) spectroscopy, and thenusing a literature value for density of the composition to calculate themass in grams of the fiber present in 10,000 meters of the fiber. Themanufacturer-provided or experimentally measured decitex values for theindividual elastic fibers removed from an entire article, or specimenextracted from an article, are used in the expression below in which thelength-weighted average of decitex value among elastic fibers present isdetermined.

The lengths of elastic fibers present in an article or specimenextracted from an article is calculated from overall dimensions of andthe elastic fiber pre-strain ratio associated with components of thearticle with these or the specimen, respectively, if known.Alternatively, dimensions and/or elastic fiber pre-strain ratios are notknown, an absorbent article or specimen extracted from an absorbentarticle is disassembled and all elastic fibers are removed. Thisdisassembly can be done, for example, with gentle heating to softenadhesives, with a cryogenic spray (e.g. Quick-Freeze, Miller-StephensonCompany, Danbury, Conn.), or with an appropriate solvent that willremove adhesive but not swell, alter, or destroy elastic fibers. Thelength of each elastic fiber in its relaxed state is measured andrecorded in millimeters (mm) to the nearest mm.

Calculation of Average-Dtex

For each of the individual elastic fibers f_(i) of relaxed length L_(i)and fiber decitex value d_(i) (obtained either from the manufacturer'sspecifications or measured experimentally) present in an absorbentarticle, or specimen extracted from an absorbent article, theAverage-Dtex for that absorbent article or specimen extracted from anabsorbent article is defined as:

${{Average}\text{-}{Dtex}} = \frac{\sum\limits_{i = 1}^{n}\;\left( {L_{i} \times d_{i}} \right)}{\sum\limits_{i = 1}^{n}\; L_{i}}$

where n is the total number of elastic fibers present in an absorbentarticle or specimen extracted from an absorbent article. TheAverage-Dtex is reported to the nearest integer value of decitex (gramsper 10000 m).

If the decitex value of any individual fiber is not known fromspecifications, it is experimentally determined as described below, andthe resulting fiber decitex value(s) are used in the above equation todetermine Average-Dtex.

Experimental Determination of Decitex Value for a Fiber

For each of the elastic fibers removed from an absorbent article orspecimen extracted from an absorbent article according to the proceduredescribed above, the length of each elastic fiber L_(k) in its relaxedstate is measured and recorded in millimeters (mm) to the nearest mm.Each elastic fiber is analyzed via FT-IR spectroscopy to determine itscomposition, and its density ρ_(k) is determined from availableliterature values. Finally, each fiber is analyzed via SEM. The fiber iscut in three approximately equal locations perpendicularly along itslength with a sharp blade to create a clean cross-section for SEManalysis. Three fiber segments with these cross-sections exposed aremounted on an SEM sample holder in a relaxed state, sputter coated withgold, introduced into an SEM for analysis, and imaged at a resolutionsufficient to clearly elucidate fiber cross-sections. Fibercross-sections are oriented as perpendicular as possible to the detectorto minimize any oblique distortion in the measured cross-sections. Fibercross-sections may vary in shape, and some fibers may consist of aplurality of individual filaments. Regardless, the area of each of thethree fiber cross-sections is determined (for example, using diametersfor round fibers, major and minor axes for elliptical fibers, and imageanalysis for more complicated shapes), and the average of the threeareas a_(k) for the elastic fiber, in units of micrometers squared(μm²), is recorded to the nearest 0.1 μm². The decitex d_(k) of the kthelastic fiber measured is calculated by:

d _(k)=10000 m×a _(k)×ρ_(k)×10⁻⁶

where d_(k) is in units of grams (per calculated 10,000 meter length),a_(k) is in units of μm², and ρ_(k) is in units of grams per cubiccentimeter (g/cm³). For any elastic fiber analyzed, the experimentallydetermined L_(k) and d_(k) values are subsequently used in theexpression above for Average-Dtex.

Surface Topography (Percent-Contact-Area, Rugosity-Frequency,Rugosity-Wavelength, and 2-98%-Height-Value)

In the Surface Topography Method, an elastomeric laminate specimen isremoved from an absorbent article and extended across and in contactwith the convex surface of a transparent horizontal cylindrical tubingsegment, allowing the areal surface topology of the wearerfacing side ofthe laminate to be measured through the transparent tubing segment usingoptical profilometry. The 3D surface data are then sampled and processedto extract several parameters that describe the Percent-Contact-Area andheight of the elastomeric laminate specimen surface as well as thefrequency and wavelength of its associated rugosities. All samplepreparation and testing is performed in a conditioned room maintained atabout 23±2° C. and about 50±2% relative humidity, and samples areequilibrated in this environment for at least 24 hours prior to testing.

Sample Preparation

Each elastomeric laminate specimen extracted from an article is mountedon a horizontal tubing segment as described below. The tubing segment iscut from a sufficient length of optically clear, colorless cast acryliccylindrical tubing having an outer diameter of 8.0 inches (203 mm) and awall thickness of 0.1875 inches (4.76 mm). The segment has a dimensionof 4.0 inches (102 mm) along an axis parallel to the central cylindricalaxis of the parent tubing and a circumferential outer arc length of 5.5inches (140 mm).

The elastomeric laminate specimen is extended in its primary stretchdirection to a ratio corresponding to its extension at 3 g/mm (mass perlinear width), where its width is determined by the Span Corrected Widthmetric as defined in the Caliper Test Method, and in which the extensionis the average ratio measured under static load for the first tenseconds during which it is applied. In this extended state, the extendedelastomeric laminate specimen is oriented such that its wearer-facingsurface is in contact with the convex surface of the tubing segment andthat the axis of extension is oriented around the circumference of thetubing segment. The extended laminate is secured at both ends to thetransparent tubing segment such that the wearer-facing surface of thelaminate is viewable through the concave side of the transparent tubingsegment.

Five replicate elastomeric laminate specimens are isolated and preparedin this way from five equivalent absorbent articles for analysis.

3D Surface Image Acquisition

A three-dimensional (3D) surface topography image of the wearerfacingsurface of the extended elastomeric laminate specimen is obtained usinga DLP-based, structured-light 3D surface topography measurement system(a suitable surface topography measurement system is the MikroCADPremium instrument commercially available from LMI Technologies Inc.,Vancouver, Canada, or equivalent). The system includes the followingmain components: a) a Digital Light Processing (DLP) projector withdirect digital controlled micro-mirrors; b) a CCD camera with at least a1600×1200 pixel resolution; c) projection optics adapted to a measuringarea of at least 60 mm×45 mm; d) recording optics adapted to a measuringarea of 60 mm×45 mm; e) a table tripod based on a small hard stoneplate; f) a blue LED light source; g) a measuring, control, andevaluation computer running surface texture analysis software (asuitable software is MikroCAD software with Mountains Map technology, orequivalent); and h) calibration plates for lateral (XY) and vertical (Z)calibration available from the vendor.

The optical 3D surface topography measurement system measures thesurface height of a sample using the digital micro-mirror pattern fringeprojection technique. The nature of this pattern projection techniqueallows the surface topography of a specimen to be interrogated through atransparent material. The result of the measurement is a 3D data set ofsurface height (defined as the Z-axis) versus displacement in thehorizontal (XY) plane. This 3D data set can also be thought of as animage in which every pixel in the image there is associated an XYdisplacement, and the value of the pixel is the recorded Z-axis heightvalue. The system has a field of view of 60×45 mm with an XY pixelresolution of approximately 37 microns, and a height resolution of 0.5microns, with a total possible height range of 32 mm.

The instrument is calibrated according to manufacturer's specificationsusing the calibration plates for lateral (XY plane) and vertical(Z-axis) available from the vendor.

The elastomeric laminate specimen mounted on the transparent tubingsegment is positioned with the concave surface of the tubing segmentsurface facing upward so that the wearerfacing surface is facing upwardand visible through the transparent material. The tubing segment isplaced on a stand such that the convex (downward-facing) specimensurface in the region to be analyzed is suspended freely and not restingon a surface. The tubing segment is oriented such that itscircumferential direction (that direction or axis along which thelaminate is stretched) is centered and perpendicular relative to thelong axis of the camera's field of view (or either of the central axesif the field of view is square). A 3D surface topology image of theelastomeric laminate specimen is collected by following the instrumentmanufacturer's recommended measurement procedures, which may includefocusing the measurement system and performing a brightness adjustment.No pre-filtering options are used. The collected height image file issaved to the evaluation computer running the surface texture analysissoftware.

If the field of view of the 3D surface topography measurement systemexceeds the evaluation region on the elastomeric laminate specimen theimage may be cropped to remove extraneous areas and retain a rectangularfield of view of the relevant portion, while maintaining the XYresolution, prior to performing the analysis.

3D Surface Image Analysis

The 3D surface topography image is opened in the surface textureanalysis software. The following filtering procedure is then performedon each image: 1) removal of invalid or non-measured points; 2) a 5×5pixel median filter to remove noise; 3) a 5×5 pixel mean filter tosmooth the surface; and 4) subtraction of a two-dimensional,second-order polynomial (determined via least-squares fit of the surfacetopology image) to remove the general form and flatten the surface. Thesecond-order polynomial is defined by the following equation:

f(x,y)=c ₁ +c ₂ x+c ₃ y+c ₄ x ² +c ₅ y ² +c ₆ xy

Each data set that has been processed to this point as described aboveis referred to as a “preprocessed specimen data set.” The highest pointsof the resulting topology image correspond to those areas in contactwith the convex surface of the tubing segment, and the lowest points arethose points most distal below the convex surface of the tubing segment.

Percent-Contact-Area and 2-98%-Height-Value

For each of the 3D surface topography images of the five replicatespecimens, the following analysis is performed on preprocessed specimendata sets. The Percent-Contact-Area and 2-98% Height measurements arederived from the Areal Material Ratio (Abbott-Firestone) curve describedin the ISO 13565-2:1996 standard extrapolated to surfaces. This curve isthe cumulative curve of the surface height distribution histogram versusthe range of surface heights measured. A material ratio is the ratio,expressed as a percent, of the area corresponding to points with heightsequal to or above an intersecting plane passing through the surface at agiven height, or cut depth, to the cross-sectional area of theevaluation region (field of view area). The height at a material ratioof 2% is initially identified. A cut depth of 100 μm below this heightis then identified, and the material ratio at this depth is recorded asthe Percent-Contact-Area at 100 μm. This procedure is repeated at a cutdepth of 200 μm and 300 μm below the identified height at a materialratio of 2%, and the material ratio at these depths are recorded as thePercent-Contact-Area at 200 μm and the Percent-Contact-Area at 300 μmrespectively. All of the Percent-Contact-Area values are recorded to thenearest 0.1%. The 2-98%-Height-Value of the specimen surface is definedas the difference in heights between two material ratios that exclude asmall percentage of the highest peaks and lowest valleys. The 2-98%Height of the specimen surface is the height between the two cuttingdepths corresponding to a material ratio value of 2% to the materialratio of 98%, and is recorded to the nearest 0.01 mm.

Rugosity-Frequency and Rugosity-Wavelength

The preprocessed 3D surface topology images for each specimen aresubjected to Fourier transform spatial frequency analysis to determineRugosity-Frequency and Rugosity-Wavelength.

Each 3D surface topology image is deconstructed into individual lineprofiles by isolating each entire row of single data points that run inthe dimension parallel to the elastic strands (if present and evident)of the elastomeric laminate, or, more generally, perpendicular to therugosity exhibited by the elastomeric laminate in the relaxed state.These line profiles are therefore data sets in the form of height (inmillimeters) versus distance (in millimeters).

For each replicate 3D surface topology image deconstructed, each lineprofile is mean centered, and a fast Fourier transform (FFT) is appliedto calculate the frequency amplitude spectrum of each line profile. TheFourier transform amplitude versus spatial frequency spectra of allextracted line profiles are averaged, and the resulting averageamplitude versus spatial frequency spectrum is defined as F(1/d), where1/d is reciprocal distance in units of mm⁻¹. Finally, the functionP(1/d)=d×F²(1/d), the spatial frequency power spectral density with aprefactor of distance d to correct for the expected 1/d noise, isplotted versus 1/d. The value of reciprocal distance 1/d at which P(1/d)is at a maximum is defined as the Rugosity-Frequency and is recorded inunits of mm⁻¹ to the nearest 0.001 mm⁻¹. The reciprocal of theRugosity-Frequency is defined as the Rugosity-Wavelength and is recordedin units of mm to the nearest 0.01 mm.

Reporting of Method Parameters

After the 3D surface image analysis described above is performed on 3Dsurface topology images of all five specimen replicates, the followingoutput parameters are defined and reported. The arithmetic mean of allfive Percent-Contact-Area at 100 μm measurements is defined as theAverage Percent-Contact-Area at 100 μm and is reported to the nearest0.1%. The arithmetic mean of all five Percent-Contact-Area at 200 μmmeasurements is defined as the Average Percent-Contact-Area at 200 μmand is reported to the nearest 0.1%. The arithmetic mean of all fivePercent-Contact-Area at 300 μm measurements is defined as the AveragePercent-Contact-Area at 300 μm and is reported to the nearest 0.1%. Thearithmetic mean of all five 2-98% Height measurements is defined as theAverage 2-98% Height and is reported in units of mm to the nearest 0.01mm. The arithmetic mean of all five Rugosity-Frequency measurements isdefined as the Average Rugosity-Frequency and is reported in units of mmto the nearest 0.001 mm⁻¹. The arithmetic mean of all fiveRugosity-Wavelength measurements is defined as the AverageRugosity-Wavelength and is reported in units of mm to the nearest 0.01mm.

Average-Pre-Strain

The Average-Pre-Strain of a specimen are measured on a constant rate ofextension tensile tester (a suitable instrument is the MTS Insight usingTestworks 4.0 Software, as available from MTS Systems Corp., EdenPrairie, Minn.) using a load cell for which the forces measured arewithin 1% to 90% of the limit of the cell. Articles are conditioned at23° C.±2 C.° and 50%±2% relative humidity for 2 hours prior to analysisand then tested under the same environmental conditions.

Program the tensile tester to perform an elongation to break after aninitial gage length adjustment. First raise the cross head at 10 mm/minup to a force of 0.05N. Set the current gage to the adjusted gagelength. Raise the crosshead at a rate of 100 mm/min until the specimenbreaks (force drops 20% after maximum peak force). Return the cross headto its original position. Force and extension data is acquired at a rateof 100 Hz throughout the experiment.

Set the nominal gage length to 40 mm using a calibrated caliper blockand zero the crosshead. Insert the specimen into the upper grip suchthat the middle of the test strip is positioned 20 mm below the grip.The specimen may be folded perpendicular to the pull axis, and placed inthe grip to achieve this position. After the grip is closed the excessmaterial can be trimmed. Insert the specimen into the lower grips andclose. Once again, the strip can be folded, and then trimmed after thegrip is closed. Zero the load cell. The specimen should have a minimalslack but less than 0.05 N of force on the load cell. Start the testprogram.

From the data construct a Force (N) verses Extension (mm). TheAverage-Pre-Strain is calculated from the bend in the curvecorresponding to the extension at which the nonwovens in the elastic areengaged. Plot two lines, corresponding to the region of the curve beforethe bend (primarily the elastics), and the region after the bend(primarily the nonwovens). Read the extension at which these two linesintersect, and calculate the % Pre-Strain from the extension and thecorrected gage length. Record as % Pre-strain 0.1%. Calculate thearithmetic mean of three replicate samples for each elastomeric laminateand Average-Pre-Strain to the nearest 0.1%.

Force-Relaxation-Over-Time

The Force-Relaxation-Over-Time of a specimen is measured on a constantrate of extension tensile tester (a suitable instrument is the MTSInsight using Testworks 4.0 Software, as available from MTS SystemsCorp., Eden Prairie, Minn.) using a load cell for which the forcesmeasured are within 1% to 90% of the limit of the cell. Articles areconditioned at 23° C.±2 C.° and 50%±2% relative humidity for 2 hoursprior to analysis and then tested under the same environmentalconditions. Prepare a sample size such that it enables a gauge length of25.4 mm (parallel to the elastic stretch) at a width of 12.7 mm.

Program the tensile tester to perform an elongation to determine theengineering strain at which the tensile force reaches 0.0294 N/mm.

Prepare and condition a second sample as described above for theForce-Relaxation-Over-Time over time test. The test is performed on thesame equipment as described above. It is performed at a temperature of37.8° C. Extend the sample to the strain as determined above. Hold thesample for 10 hours and record the force at a rate of 100 Hz throughoutthe experiment a chart showing the data for an extruded strand prior artproduct and an inventive elastomeric laminate comprising beam elastic asdescribed herein is show in FIG. 8.

Air-Permeability

Air-Permeability is tested using a TexTest FX3300 Air-PermeabilityTester (available from Advanced Testing Instruments, Greer, S.C.) with acustom made 1 cm² aperture (also available from Advanced TestingInstruments). Standardize the instrument according to the manufacturer'sprocedures. Precondition the articles at about 23° C.±2 C.° and about50%±2% relative humidity for two hours prior to testing. Articles arepreconditioned at 23° C.±2 C.° and 50%±2% relative humidity for twohours prior to testing and all testing is performed under the sameenvironmental conditions.

The test is intended for use with stretch laminate of the sample articlesuch as belts, side panels, ears, waist bands, etc. Stretch componentsare removed from the article using, for example, cryogenic spay (e.g.Quick-Freeze, Miller-Stephenson Company, Danbury, Conn.) or cutting.Specimens are dissected from the laminate avoiding material seams orother structures not integral to the stretch. Stretch laminates areharvested from 3 articles for each test set.

Cut a specimen from the stretch region of the laminate that is 25 mm by25 mm. For a specimen with unevenly spaced strands, a Span CorrectedWidth (SCW) is calculated as:

${{Span}\mspace{14mu}{Corrected}\mspace{14mu}{Width}} = {d\left( \frac{n}{n - 1} \right)}$

where d is the distance (mm) between the two distal strands, and n isthe number of strands, when n>1. Using the Span Corrected Widthdetermine the elongation need to achieve 3 g/mm SCW and 7 g/mm SCW byhanging weights on a substantially similar specimen and measuring theelongation.

The on the instrument's air pressure is set for 125 Pa. Place a specimenin its relaxed state with the wearer-facing side downward on the portplate. The stretch region must completely cover the instruments port.Close the sample ring and adjust the measuring range until it is withinspecification. Record the Air-Permeability for the un-extended specimento the nearest 0.1 m³/m²/min.

Select one of the edges of laminate that is perpendicular to the machinedirection (MD) and secure it to the port plate of the instrument usingadhesive tape. The specimen is then extended in the machine direction toa length equivalent to 3 gf/mm and secured. The stretch region mustcompletely cover the port. Close the sample ring and adjust themeasuring range until the it is within specification. Record theAir-Permeability for the 3 g/mm to the nearest 0.1 m³/m²/min. Repeat inlike fashion for the 7 g/mm extension and record the Air-Permeabilityfor the 3 g/mm to the nearest 0.1 m³/m²/min.

A total of five measures are made on replicate specimens for eachstretch laminate. Calculate and report the arithmetic average forAir-Permeability at the 0 gf/mm, 3 gf/mm, and 7 gf/mm elongation andreport each to the nearest 0.1 m3/m2/min.

PEEL-STRENGTH (Value from the “180 Degree Peel Test Method”)

Tensile properties are measured on a constant rate of extension tensiletester with computer interface (a suitable instrument is the MTS Insightusing Testworks 4.0 Software, as available from MTS Systems Corp., EdenPrairie, Minn.) using a load cell for which the forces measured arewithin 10% to 90% of the limit of the cell. Both the movable (upper) andstationary (lower) pneumatic jaws are fitted with rubber faced flatgrips, wider than the width of the test specimen. Air pressure suppliedto the jaws should be sufficient to prevent specimen slippage. Alltesting is performed in a conditioned room maintained at about 23° C.±2C.° and about 50%±2% relative humidity.

Program the tensile tester to perform a 180 degree peel test. Raise thecrosshead at a rate of 150 mm/min until the laminate separates. Returnthe crosshead to its starting position. Force and extension data arecollected at a rate of 100 Hz throughout the experiment.

Condition samples at about 23° C.±2 C.° and about 50%±2% relativehumidity for at least two hours before testing. Prepare an elasticlaminate as described in General Sample Preparation from abovecorresponding locations on five (5) replicate products. Trim samples to60 mm long by 25.4 mm wide. If the sample is not 60 mm long the lengthcan be adjusted. Repeat in like fashion for all five (5) specimen strips

Set the gage length to 25.4 mm using a calibrated caliper block and zerothe crosshead. Manually peel 15 mm of one end of the specimen stripapart. Place the first of the peeled tail into the upper grip and close.Place the second tail into the lower grip and close. The specimen shouldhave minimal slack but less than 0.05 N of force on the load cell. Startthe test program and collected data.

From the Force (N) versus Extension (mm) curve calculate the averageforce between the initiation of the peel and the termination of the peeland record to the nearest 0.01 N. Repeat in like fashion for each of the4 remaining sample strips. Calculate an average for the 5 samples andreport as the Peel Force to the nearest 0.01 N/cm.

Color-Contrast (“ΔE*”) (Value from the Strand Color ContrastMeasurement)

Small scale color measurements of elasticized laminate where theelastics strands are significantly different in color from the regionsbetween the strands can be made from calibrated scanned images. Thesepaired color measurements are then used to calculate a Color-Contrastfor the laminate.

A flatbed scanner capable of scanning a minimum of 24 bit color at 1200dpi is used. For calibration, the automatic color management of thescanner must be disabled. If it cannot, the scanner is not appropriatefor this application. A suitable scanner is an Epson Perfection V750 Profrom Epson America Inc., Long Beach Calif., or equivalent. The scanneris calibrated against a color reflection target compliant to a colorstandard (such as ANSI method ITS.7/2-1993, or equivalent) using colormanagement software (a suitable package is MonacoEZColor available fromX-Rite Grand Rapids, Mich.) to construct an ICC scanner profile. Theresulting calibrated scanner profile is opened within an imaging programthat supports sampling in CIE L*a*b* (a suitable program is Photoshopavailable from Adobe Systems Inc., San Jose, Calif.) to measure thecolor of elastic strands within a scanned image of the sample.

Using the calibration software, acquire a scan of the color standard in24 bit color and build an ICC profile following the vender'sinstructions. Save the profile for use in the image analysis software.Prepare a sample of the elastic laminate that is at least 25.4 mm in theCD as described under General Sample Preparation above from acorresponding location on three replicate products. Secure a sample at alength equivalent to 7 g/mm SCW on the scanner glass. Back the samplewith a white plate (herein white is defined as L*>95, −2<a*<2, and−2<b*<2) and acquire a 25 mm square, 24 bit color image at 1200 dpi.Open the image in the image analysis program and select a site over astrand bundle. Select L*a*b* as the color mode. Adjust the diameter ofthe “eyedropper” tool to a diameter slightly smaller than the width ofthe strand and take a L*a*b* reading overtop the strand. Take a secondL*a*b* reading at an adjacent site between strands where the laminate isnot ultrasonically bonded. In like fashion, acquire 19 more measurementpairs spaced throughout the image. Calculate the ΔE* value between eachpair using the following equation:

ΔE*=√{square root over ((L ₁ *−L ₂*)²+(a ₁ *−a*)²+(b ₁ *−b ₂*)²)}

Acquire 20 paired readings from the next two replicate samples andcalculate the ΔE* for each pair. Calculate the average of the 60 ΔE*values and report as the Strand Contrast to the nearest 0.01 units.

EMTEC (Including Emtec-TS7-Value and Emtec-TS750-Value) (Also Called theEmtec Test)

The Emtec Test is performed on a portion of interest of elastic laminatematerial. In this test, TS7, TS750, and D values are measured using anEmtec Tissue Softness Analyzer (“Emtec TSA”) (Emtec Electronic GmbH,Leipzig, Germany) interfaced with a computer running Emtec TSA software(version 3.19 or equivalent). The Emtec TSA includes a rotor withvertical blades which rotate on the test sample at a defined andcalibrated rotational speed (set by manufacturer) and contact force of100 mN. Contact between the vertical blades and the test sample createsvibrations both in the blades and in the test sample, and the resultingsound is recorded by a microphone within the instrument. The recordedsound file is then analyzed by the Emtec TSA software to determine TS7and TS750 values. The D value is a measure of sample stiffness and isbased on the vertical distance required for the contact force of theblades on test sample to be increased from 100 mN to 600 mN. The samplepreparation, instrument operation, and testing procedures are performedaccording the instrument manufacturer's specifications.

Sample Preparation

A test sample is prepared by cutting a square portion of interest froman absorbent article. Test samples are cut to a length and width of noless than about 90 mm and no greater than about 120 mm to ensure thesample can be clamped into the Emtec TSA instrument properly. If theconstruction of the laminate is such that the elastic strands are ableto move independently of the nonwovens when the laminate is cut(evidenced, for example, by the retraction of the elastic strands into acut sample when it is stretched), the laminate is thermally welded(prior to cutting out the sample) perpendicularly to the elastic strandsand just inside the intended edge of the sample so as to immobilize theends of the elastic strands. (If an absorbent does not contain asufficiently large area of the substrate of interest to extract a sampleof the size specified above, it is acceptable to sample equivalentmaterial from roll stock, similarly thermally welding around theperimeter of the cut sample if needed.) Test samples are selected toavoid unusually large creases or folds within the testing region. Sixsubstantially similar replicate samples are prepared for testing.

All samples are equilibrated at TAPPI standard temperature and relativehumidity conditions (23° C.±2 C.° and 50%±2%) for at least 2 hours priorto conducting the Emtec TSA testing, which is also conducted under TAPPIconditions.

Testing Procedure

The instrument is calibrated according to the Emtec's instructions usingthe 1-point calibration method with the appropriate reference standards(so-called “ref.2 samples,” or equivalent, available from Emtec).

A test sample is mounted in the instrument with the surface of interestfacing upward, and the test is performed according to the manufacturer'sinstructions. The software displays values for TS7, TS750, and D whenthe automated instrument testing routine is complete. TS7 and TS750 areeach recorded to the nearest 0.01 dB V² rms, and D is recorded to thenearest 0.01 mm/N. The test sample is then removed from the instrumentand discarded. This testing procedure is performed individually on thecorresponding surfaces of interest of each of the six of the replicatesamples.

The value of TS7, TS750, and D are each averaged (arithmetic mean)across the six sample replicates. The average values of TS7 and TS750are reported to the nearest 0.01 dB V² rms. The average value of D isreported to the nearest 0.01 mm/N. HIP-HOOP (value from the Hip HoopTest or the Whole Outer Cover Waist Opening Circumference ExtensionForce Test)

This method is a 2 cycle hysteresis test, with is used for determining:the maximum extension of the product waist at a stress of 18.2 gf/mm(and maximum strain); the Application-Force (and Application-Stress);the Sustained-Fit Load-Force (and Sustained-Fit-Load-Stress); andSustained-Fit-Unload-Force (and Sustained-Fit-Unload-Stress) of adisposable article with a continuous waist. The article can be a pant ora closable article that has been pre-fastened.

Whole product waist opening circumference extension forces (andstresses) are measured on a constant rate of extension tensile testerwith computer interface (a suitable instrument is the MTS Insight usingTestworks 4.0 Software, as available from MTS Systems Corp., EdenPrairie, Minn.) using a load cell for which the forces measured arewithin 10% to 90% of the limit of the cell. Initial waist circumferenceis measured using a flexible tape measure. The accuracy of the tape iseither traceable to NIST or other standards organization, or verifiedfor accuracy against a traceable ruler. All testing is performed in aconditioned room maintained at about 23° C.±2 C.° and about 50%±2%relative humidity. Samples are condition under the same conditions for 2hours prior to testing. Five replicate articles are analyzed and theresults averaged.

For this test, a custom hook fixture 1510 (FIG. 22) is used. The hookfixture 1510 comprises a pair of J-shaped hooks 1512, each with anattachment member 1514 designed to mount to the tester's stationary baseand upper movable crosshead (via the load cell). Each J-shaped hook 1512has a substantially circular cross-sectional shape with a diameter, D,of about 1 cm. The hooks 1512 have a width, W, of about 25 cm. If theelastic side panel to be tested extends past the end of the engagingarm, or bunches at the J curve of the fixture, W is lengthened toaccommodate the longer side panel. The hooks 1512 exhibit a smoothcurvature to form the two engaging arms 1516 that are perpendicular tothe attachment member 1514. Each attachment member is fitted with alocking collar 1513 which fixes the engagement arms 1516 of the hooksparallel to one another and perpendicular to the pull axis of thetensile tester.

The stress in the product waist is calculated by first determining thenarrowest longitudinal length within the closed waist hoop. For adisposable article with a continuous waist, this is typically the lengthof the side seam. For a pant that is prefastened, this is typically thelongitudinal length of the attaching fastener. For example, a closedform product with the narrowest longitudinal length within the hoopbeing an 11 cm side panel, the maximum stress to pull to, 18.2 gf/mm,would be 2000 gf.

Manually move the crosshead up. Hang the article from the top engagingarm 1516 such that the article is solely supported from the top arm, andzero the load cell. Lower the top engaging arm so that the article 1518can be slid onto the engaging arms 1516 with the elastic sides centeredalong the pull axis of the tester, as illustrated in FIG. 22. Adjust theengaging arms 1516 to remove any slack from the article, but ensure thatno more than 5 grams of force is measured on the load cell. Zero thecrosshead. With a flexible measuring tape, graduated in mm, measure therelaxed waist opening circumference by wrapping the tape 1519 around theengaging arms 1516 proximate to the waist opening of the article of FIG.22. Record the Initial Circumference to the nearest 1 mm. Remove themeasuring tape from the arms 1516.

The test consists of 7 distinct steps.

-   -   1. This is called the first load. Program the tensile tester to        move the crosshead up at a rate of 254 mm/min. Extend the        crosshead until a stress of 18.2 gf/mm is reached. At this        point, record the extension as the maximum extension. The        maximum strain is also calculated using the Initial        Circumference. maximum strain=(maximum extension)/(Initial        Circumference/2).    -   2. Hold at this crosshead extension for 30 seconds.    -   3. This is called the first unload. Return the crosshead at a        rate of 254 mm/min to the starting position.    -   4. Hold at this crosshead extension for 60 seconds.    -   5. This is called the second load. Move the crosshead up at a        rate of 254 mm/min. Extend until a stress of 18.2 gf/mm is        reached.    -   6. Hold at this crosshead extension for 30 seconds.    -   7. This is called the second unload. Return the crosshead at a        rate of 254 mm/min to the starting position.

Collect data at an acquisition rate of 100 Hz throughout the experiment.

In like fashion repeat for the remaining four replicates.

Maximum Strain (Maximum Extension)=(maximum extension at 18.2gf/mm)/(Initial Circumference/2)

Application-Strain (Application Extension)=Maximum Strain multiplied by80%.

Application-Force (Application-Stress)=Force (gf/mm) (Stress) atApplication-Strain in the first load (step 1 of Hip Hoop test).

Sustained-Fit-Load-Force (Sustained-Fit-Load-Stress)=Force (gf/mm)(Stress) at (Maximum Strain/2) in the second load (step 5 of Hip Hooptest) cycle.

Sustained-Fit-Unload-Force (Sustained-Fit-Unload-Stress)=Force (gf/mm)(Stress) at (Maximum Strain/2) in the second unload (step 7 of Hip Hooptest) cycle.

Melting-Point

Melting point of a polymer specimen can be determined by DifferentialScanning calorimetry (DSC) using ASTM 794, Standard Test Method forMelting and Crystallization Temperatures by Thermal Analysis. Meltingpoint is reported as T_(p) (melting peak) from the endothermic curve tothe nearest 0.1° C.

In-Bag-Stack-Height

The In-Bag-Stack-Height of a package of absorbent articles is determinedas follows:

Equipment

A thickness tester with a flat, rigid horizontal sliding plate is used.The thickness tester is configured so that the horizontal sliding platemoves freely in a vertical direction with the horizontal sliding platealways maintained in a horizontal orientation directly above a flat,rigid horizontal base plate. The thickness tester includes a suitabledevice for measuring the gap between the horizontal sliding plate andthe horizontal base plate to within ±0.5 mm. The horizontal slidingplate and the horizontal base plate are larger than the surface of theabsorbent article package that contacts each plate, i.e. each plateextends past the contact surface of the absorbent article package in alldirections. The horizontal sliding plate exerts a downward force of850±1 gram-force (8.34 N) on the absorbent article package, which may beachieved by placing a suitable weight on the center of thenon-package-contacting top surface of the horizontal sliding plate sothat the total mass of the sliding plate plus added weight is 850±1grams.

Test Procedure

Absorbent article packages are equilibrated at 23±2° C. and 50±5%relative humidity prior to measurement.

The horizontal sliding plate is raised and an absorbent article packageis placed centrally under the horizontal sliding plate in such a waythat the absorbent articles within the package are in a horizontalorientation (see FIG. 20). Any handle or other packaging feature on thesurfaces of the package that would contact either of the plates isfolded flat against the surface of the package so as to minimize theirimpact on the measurement. The horizontal sliding plate is loweredslowly until it contacts the top surface of the package and thenreleased. The gap between the horizontal plates is measured to within±0.5 mm ten seconds after releasing the horizontal sliding plate. Fiveidentical packages (same size packages and same absorbent articlescounts) are measured and the arithmetic mean is reported as the packagewidth. The “In-Bag-Stack-Height”=(package width/absorbent article countper stack)×10 is calculated and reported to within ±0.5 mm.

CONCLUSION

The dimensions and values disclosed herein are not to be understood asbeing strictly limited to the exact numerical values recited. Instead,unless otherwise specified, each such dimension is intended to mean boththe recited value and a functionally equivalent range surrounding thatvalue. For example, a dimension disclosed as “40 mm” is intended to mean“about 40 mm.”

Every document cited herein, including any cross referenced or relatedpatent or application and any patent application or patent to which thisapplication claims priority or benefit thereof, is hereby incorporatedherein by reference in its entirety unless expressly excluded orotherwise limited. The citation of any document is not an admission thatit is prior art with respect to any invention disclosed or claimedherein or that it alone, or in any combination with any other referenceor references, teaches, suggests or discloses any such invention.Further, to the extent that any meaning or definition of a term in thisdocument conflicts with any meaning or definition of the same term in adocument incorporated by reference, the meaning or definition assignedto that term in this document shall govern.

While particular embodiments of the present disclosure have beenillustrated and described, it would be obvious to those skilled in theart that various other changes and modifications can be made withoutdeparting from the spirit and scope of the invention. It is thereforeintended to cover in the appended claims all such changes andmodifications that are within the scope of this invention.

1. An elastomeric laminate, comprising: a plurality of elastic strandsbetween of first and second nonwovens; wherein the plurality of elasticstrands has an Average-Strand-Spacing from about 0.25 mm to about 4 mm;wherein the plurality of elastic strands has an Average-Dtex from about10 to about 400; wherein the plurality of elastic strands has anAverage-Pre-Strain from about 50% to about 300%; and wherein aDtex-to-Nonwoven-Basis-Weight-Ratio of a first elastic strand and of atleast one of the first and second nonwovens is from about 1.5 to about15.
 2. The elastomeric laminate of claim 1, wherein a first elasticstrand of the first plurality of elastic strands comprises from about 2to about 40 filaments, including first and second filaments, wherein thefirst and second filaments are disposed cross-sectionally side-by-sideof each other, and wherein at least one discrete bond surrounds at leastthe first and second filaments.
 3. The elastomeric laminate of claim 2,wherein the at least one discrete bond overlaps at least 10 elasticstrands of the first plurality of elastic strands.
 4. The elastomericlaminate of claim 3, wherein the at least one discrete bond surrounds atleast 20 filaments of the at least 10 elastic strands.
 5. Theelastomeric laminate of claim 1, wherein the plurality of elasticstrands has an Average-Strand-Spacing from about 0.5 mm to about 2.5 mm.6. The elastomeric laminate of claim 1, wherein a Dtex-to-Spacing-Ratioof the plurality of elastic strands is from about 65:1 to about 150:1.7. The elastomeric laminate of claim 1, wherein the plurality of elasticstrands comprises at least 100 elastic strands, and wherein each of theat least 100 elastic strands comprises at least 3 filaments.
 8. Theelastomeric laminate of claim 1, further comprising at least one of: a)a Percent-Contact-Area of at least one of: a) greater than about 10% at100 um, b) greater than about 20% at 200 um, and c) greater than about30% at 300 um; b) a Force-Relaxation-Over-Time from about 5% to about30%; c) a Cantilever-Bending of less than about 40 mm; d) a2%-98%-Height-Value of <2.2 mm; e) a Pressure-Under-Strand from about0.1 to about 1 psi; and f) a Section-Modulus of from about 2 gf/mm toabout 15 gf/mm.
 9. The elastomeric laminate of claim 1, wherein theelastomeric laminate forms at least a portion of at least one of thegroup consisting of a belt, a chassis, a side panel, a topsheet, abacksheet, an ear panel, and combinations thereof, wherein the pluralityof elastic strands comprises from about 40 to about 1000 elasticstrands, wherein each of the elastic strands making up the about 40 toabout 1000 elastic strands are overlapped by and partially surrounded bya plurality of discrete bonds.
 10. The elastomeric laminate of claim 1,wherein a third nonwoven is joined to the second nonwoven such that atri-laminate is formed, and wherein an exterior surface of the thirdnonwoven and an exterior surface of the first nonwoven have differentPercent-Contact-Areas.
 11. The elastomeric laminate of claim 10, whereinthe third nonwoven is joined to the second nonwoven via adhesive. 12.The elastomeric laminate of claim 1, wherein the first nonwoven layerhas a basis weight from about 6 grams per square meter to about 35 gramsper square meter, and wherein the second nonwoven layer has a basisweight from about 6 grams per square meter to about 35 grams per squaremeter.
 13. The elastomeric laminate of claim 1, wherein a Peel-Strengthbetween the first and second nonwovens is from about 1 N/cm to about15N/cm.